×

Heat transfer – a review of 2005 literature. (English) Zbl 1197.80002

Summary: The present review is intended to encompass the heat transfer literature published in 2005. While of a wide-range in scope, some selection is inevitable. We restrict ourselves to papers published in English through a peer-review process, with selected translations from journals published in other languages. Papers from conference proceedings generally are not included, though the Proceeding itself may be cited in the introduction. A significant fraction of the papers reviewed herein relates to the science of heat transfer, including experimental, analytical and numerical studies. Other papers cover applications where heat transfer plays a major role, not only in man-made devices but in natural systems as well. The papers are grouped into major subject areas and then into subfields within these areas. In addition to reviewing the literature, we mention major conferences held in 2005, major awards related to heat transfer presented in 2005, and books on heat transfer published during the year.

MSC:

80-00 General reference works (handbooks, dictionaries, bibliographies, etc.) pertaining to classical thermodynamics
80-02 Research exposition (monographs, survey articles) pertaining to classical thermodynamics
80-03 History of classical thermodynamics
01A90 Bibliographic studies

Software:

ROS3P
PDFBibTeX XMLCite
Full Text: DOI

References:

[1] Gubarev, V. Y.; Shatskikh, Y. V.: Heat transfer between a gas-droplet medium and a high-temperature surface, High temperature 43, No. 5, 775-780 (2005)
[2] Heichal, Y.; Chandra, S.: Predicting thermal contact resistance between molten metal droplets and a solid surface, Journal of heat transfer 127, No. 11, 1269-1275 (2005)
[3] Afferrante, L.; Ciavarella, M.: Separated steady state solutions for two thermoelastic half-planes in contact with out-of-plane sliding, Journal of the mechanics and physics of solids 53, No. 7, 1449-1475 (2005) · Zbl 1120.74438
[4] Lin, J. F.: Thermal analysis of the transient temperatures arising at the contact spots of two sliding surfaces, Journal of tribology 127, No. 4, 694-704 (2005)
[5] Mesnyankin, S. Y.: Modern approach to the account of contact thermal resistances in power plants, Heat transfer research 36, No. 8, 703-711 (2005)
[6] Zhao, J. F.; Wang, A. L.; Yang, C. X.: Prediction of thermal contact conductance based on the statistics of the roughness profile characteristics, International journal of heat and mass transfer 48, No. 5, 974-985 (2005)
[7] Naqvi, K. R.; Waldenstrom, S.: Brownian motion description of heat conduction by phonons, Physical review letters 95, No. 6, 1-4 (2005)
[8] Ali, Y. M.; Zhang, L. C.: Relativistic heat conduction, International journal of heat and mass transfer 48, No. 12, 2397-2406 (2005) · Zbl 1189.80009
[9] Horgan, C. O.; Quintanilla, R.: Spatial behaviour of solutions of the dual-phase-lag heat equation, Mathematical methods in the applied sciences 28, No. 1, 43-57 (2005) · Zbl 1072.35113
[10] Jiang, F.; Sousa, A. C. M.: Analytical solution for hyperbolic heat conduction in a hollow sphere, Journal of thermophysics and heat transfer 19, No. 4, 595-598 (2005)
[11] Saidane, A.: A transmission line matrix (TLM) study of hyperbolic heat conduction in biological materials, Journal of food engineering 68, No. 4, 491-496 (2005)
[12] Tsai, C. S.; Lin, Y. C.; Hung, C. I.: A study on the non-Fourier effects in spherical media due to sudden temperature changes on the surfaces, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 709-716 (2005)
[13] Xu, M.; Wang, L.: Dual-phase-lagging heat conduction based on Boltzmann transport equation, International journal of heat and mass transfer 48, No. 25 – 26, 5616-5624 (2005) · Zbl 1188.76242
[14] Yang, C. Y.: Direct and inverse solutions of hyperbolic heat conduction problems, Journal of thermophysics and heat transfer 19, No. 2, 217-225 (2005)
[15] Domingues, G.: Heat transfer between two nanoparticles through near field interaction, Physical review letters 94, No. 8 (2005)
[16] Prasher, R.: Thermal boundary resistance of nanocomposites, International journal of heat and mass transfer 48, No. 23 – 24, 4942-4952 (2005) · Zbl 1189.74033
[17] Yang, X. S.: Modelling heat transfer of carbon nanotubes, Modelling and simulation in materials science and engineering 13, No. 6, 893-902 (2005)
[18] Narumanchi, S. V. J.; Murthy, J. Y.; Amon, C. H.: Comparison of different phonon transport models for predicting heat conduction in silicon-on-insulator transistors, Journal of heat transfer 127, No. 7, 713-723 (2005)
[19] Yang, R.: Simulation of nanoscale multidimensional transient heat conduction problems using ballistic-diffusive equations and phonon Boltzmann equation, Journal of heat transfer 127, No. 3, 298-306 (2005)
[20] Assaf, B.: Development of a characterization mold to measure the transverse thermal conductivity of a composite material by inverse analysis, Journal of reinforced plastics and composites 24, No. 17, 1837-1854 (2005)
[21] Khutornoi, A. N.: Heat transfer in a plane three-layer system with a not-through cross connection, Journal of engineering physics and thermophysics 78, No. 2, 231-238 (2005)
[22] Li, J.: Rapid transient heat conduction in multilayer materials with pulsed heating boundary, Numerical heat transfer; part A: applications 47, No. 7, 633-652 (2005)
[23] Pavlenko, A. M.; Basok, B. I.; Avramenko, A. A.: Heat conduction of a multi-layer disperse particle of emulsion, Heat transfer research 36, No. 1 – 2, 55-61 (2005)
[24] Shiah, Y. C.; Yang, R. B.; Hwang, P. W.: Heat conduction in dissimilar anisotropic media with bonding defects/interface cracks, Journal of mechanics 21, No. 1, 15-23 (2005)
[25] Su, J.; Cerqueira, D. R.; Estefen, S. F.: Simulation of transient heat transfer of sandwich pipes with active electrical heating, Journal of offshore mechanics and arctic engineering 127, No. 4, 366-370 (2005)
[26] Almogbel, M. A.: Constructal tree-shaped fins, International journal of thermal sciences 44, No. 4, 342-348 (2005)
[27] Arauzo, I.; Campo, A.; Cortés, C.: Quick estimate of the heat transfer characteristics of annular fins of hyperbolic profile with the power series method, Applied thermal engineering 25, No. 4, 623-634 (2005)
[28] Brucker, K. A.; Majdalani, J.: Effective thermal conductivity of common geometric shapes, International journal of heat and mass transfer 48, No. 23 – 24, 4779-4796 (2005) · Zbl 1189.76588
[29] Dirker, J.; Malan, A. G.; Meyer, J. P.: Thermal characterisation of rectangular cooling shapes in heat generating mediums - a three-dimensional investigation, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 391-398 (2005)
[30] Huang, C. H.; Tsai, Y. L.: A transient 3-D inverse problem in imaging the time-dependent local heat transfer coefficients for plate fin, Applied thermal engineering 25, No. 14 – 15, 2478-2495 (2005)
[31] Kou, H. S.; Lee, J. J.; Lai, C. Y.: Thermal analysis of a longitudinal fin with variable thermal properties by recursive formulation, International journal of heat and mass transfer 48, No. 11, 2266-2277 (2005) · Zbl 1189.80019
[32] Ong, K. E.: Optimization of fins used in electronic packaging, Microelectronics international 22, No. 1, 10-15 (2005)
[33] Wiggins, E. G.: Fin calculations in mathcad, Computers in education journal 15, No. 2, 45-49 (2005)
[34] Vesenjak, M.: Heat conduction in closed-cell cellular metals, Materialwissenschaft und werkstofftechnik 36, No. 10, 608-612 (2005)
[35] Ali, Y. M.; Zhang, L. C.: Relativistic moving heat source, International journal of heat and mass transfer 48, No. 13, 2741-2758 (2005) · Zbl 1189.80010
[36] Balakrishnan, V.; Den Broeck, C. Van: Analytic calculation of energy transfer and heat flux in a one-dimensional system, physical review E – statistical, Nonlinear, and soft matter physics 72, No. 4, 1-8 (2005)
[37] Dolinskii, A. A.; Ivanitskii, G. K.: Application of an integral method to calculation of a temperature field in the vicinity of an oscillating vapor bubble, Heat transfer research 36, No. 1 – 2, 1-10 (2005)
[38] Fukuyo, K.: Power-series method for two-dimensional heat conduction PROBLEMS, Numerical heat transfer, part B: fundamentals 47, No. 3, 239-255 (2005)
[39] Fukuyo, K.: Stability and accuracy of power-series method for one-dimensional heat conduction with non-uniform grid systems, Heat transfer - asian research 34, No. 7, 470-480 (2005)
[40] Kholpanov, L. P.; Zakiev, S. E.: Fractional integro-differential analysis of heat and mass transfer, Journal of engineering physics and thermophysics 78, No. 1, 33-46 (2005)
[41] Sadat, H.: A general lumped model for transient heat conduction in one-dimensional geometries, Applied thermal engineering 25, No. 4, 567-576 (2005)
[42] Strub, F.: Second law analysis of periodic heat conduction through a wall, International journal of thermal sciences 44, No. 12, 1154-1160 (2005)
[43] Wang, Z. H.; Au, S. K.; Tan, K. H.: Heat transfer analysis using a Green’s function approach for uniformly insulated steel members subjected to fire, Engineering structures 27, No. 10, 1551-1562 (2005)
[44] Azimi, A.; Hannani, S. Kazemzadeh; Farhanieh, B.: Structured multiblock grid solution of two-dimensional transient inverse heat conduction problems in Cartesian coordinate system, Numerical heat transfer, part B: fundamentals 48, No. 6, 571-590 (2005)
[45] Bolot, R.: A two-dimensional heat transfer model for thermal barrier coating average thermal conductivity computation, Numerical heat transfer; part A: applications 47, No. 9, 875-898 (2005)
[46] Chen, T. C.; Tuan, P. C.: Input estimation method including finite-element scheme for solving inverse heat conduction problems, Numerical heat transfer, part B: fundamentals 47, No. 3, 277-290 (2005)
[47] Fic, A.; Bialecki, R. A.; Kassab, A. J.: Solving transient nonlinear heat conduction problems by proper orthogonal decomposition and the finite-element method, Numerical heat transfer, part B: fundamentals 48, No. 2, 103-124 (2005)
[48] Huang, C. H.; Lo, H. C.: A three-dimensional inverse problem in predicting the heat fluxes distribution in the cutting tools, Numerical heat transfer; part A: applications 48, No. 10, 1009-1034 (2005)
[49] Kennedy, T. C.; Traiviratana, S.: Transient effects on heat conduction in sliding bodies, Numerical heat transfer; part A: applications 47, No. 1, 57-77 (2005)
[50] Liu, Y.; Zhang, X.; Lu, M.: Meshless least-squares method for solving the steady-state heat conduction equation, Tsinghua science and technology 10, No. 1, 61-66 (2005) · Zbl 1092.65101
[51] Liu, Y.; Zhang, X.; Lu, M. W.: A meshless method based on least-squares approach for steady- and unsteady-state heat conduction problems, Numerical heat transfer, part B: fundamentals 47, No. 3, 257-275 (2005)
[52] Luttich, T.; Mhamdi, A.; Marquardt, W.: Design, formulation, and solution of multidimensional inverse heat conduction problems, Numerical heat transfer, part B: fundamentals 47, No. 2, 111-133 (2005)
[53] Lyra, P. R. M.: An axisymmetric finite volume formulation for the solution of heat conduction problems using unstructured meshes, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 4, 407-414 (2005)
[54] Mishra, S. C.; Lankadasu, A.: Transient conduction-radiation heat transfer in participating media using the lattice Boltzmann method and the discrete transfer method, Numerical heat transfer; part A: applications 47, No. 9, 935-954 (2005)
[55] Simoes, N.; Tadeu, A.: 3D transient heat transfer by conduction and convection across a 2D medium using a boundary element model, CMES - computer modeling in engineering and sciences 9, No. 3, 221-233 (2005)
[56] Tsourkas, P.; Rubinsky, B.: A parallel genetic algorithm for heat conduction problems, Numerical heat transfer, part B: fundamentals 47, No. 2, 97-110 (2005)
[57] Beh, S. L.: Steady and unsteady thermal analysis of a triple stack cold plate with heat losses, International journal of numerical methods for heat and fluid flow 15, No. 1, 96-112 (2005) · Zbl 1162.76389
[58] Chen, C. K.; Wu, L. W.; Yang, Y. T.: Estimation of unknown outer-wall heat flux in turbulent circular pipe flow with conduction in the pipe wall, International journal of heat and mass transfer 48, No. 19 – 20, 3971-3981 (2005) · Zbl 1188.76216
[59] Cheng, C. H.; Chang, M. H.: Identification of unknown heating elements embedded in a rectangular package, Journal of heat transfer 127, No. 8, 918-930 (2005)
[60] Dai, T.: Thermal analysis of a conduction-cooled HTS coil with heat disturbances, IEEE transactions on applied superconductivity 15, No. 2 PART II, 1679-1682 (2005)
[61] Gerstenmaier, Y. C.; Wachutka, G. K. M.: Transient temperature fields with general nonlinear boundary conditions in electronic systems, IEEE transactions on components and packaging technologies 28, No. 1, 23-33 (2005)
[62] Ha, S. H.; Cho, S.: Topological shape optimization of heat conduction problems using level set approach, Numerical heat transfer, part B: fundamentals 48, No. 1, 67-88 (2005)
[63] Ho, C. I.; Hung, T. C.; Hung, C. I.: Thermal analysis and optimization for a ball grid array package, Proceedings of the institution of mechanical engineers, Part C: Journal of mechanical engineering science 219, No. 4, 381-393 (2005)
[64] Iesan, D.; Nappa, L.: On the theory of heat for micromorphic bodies, International journal of engineering science 43, No. 1 – 2, 17-32 (2005) · Zbl 1211.74071
[65] Kuznetsov, G. V.; Sheremet, M. A.: Spatial simulation of heat transfer through protective structures in conditions of heterogeneous heat exchange on the boundaries, Heat transfer research 36, No. 8, 631-639 (2005)
[66] Rozniakowska, M.; Yevtushenko, A. A.: Influence of laser pulse shape both on temperature profile and hardened layer depth, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 1, 64-70 (2005)
[67] Siakavellas, N. J.; Georgiou, D. P.: 1D heat transfer through a flat plate submitted to step changes in heat transfer coefficient, International journal of thermal sciences 44, No. 5, 452-464 (2005)
[68] Su, S.: Comparison of the solutions of a phase-lagging heat transport equation and damped wave equation, International journal of heat and mass transfer 48, No. 11, 2233-2241 (2005) · Zbl 1189.80029
[69] Su, Y. X.: Revised CFB wall-to-suspension heat transfer model, Journal of dong hua university (English edition) 22, No. 1, 97-101 (2005)
[70] Teertstra, P.; Yovanovich, M. M.; Culham, J. R.: Modeling transient conduction in enclosed regions between isothermal boundaries of arbitrary shape, Journal of thermophysics and heat transfer 19, No. 3, 382-387 (2005)
[71] Veselovskii, V. B.: Mathematical modeling of heat transfer in enhancement of the heating processes of solid bodies, Heat transfer research 36, No. 8, 691-696 (2005)
[72] Xiao, D.: Transient conduction analytical solutions for testing of building energy simulation programs, Building services engineering research and technology 26, No. 3, 229-247 (2005)
[73] Yang, C. Y.: Estimation of multiple heat sources in two-dimensional heat conduction problems, Journal of thermophysics and heat transfer 19, No. 3, 388-394 (2005)
[74] Zhou, H.; Li, D.: Modeling and simulation of heat transfer for Glass bulb mold, Progress in natural science 15, No. 7, 650-655 (2005)
[75] Yevtushenko, A.; Matysiak, S. J.: On approximate solutions of temperature and thermal stresses in an elastic semi-space due to laser heating, Numerical heat transfer; part A: applications 47, No. 9, 899-915 (2005)
[76] Aizaz, A.; Mcmasters, R. L.: Detection of hot spot through inverse thermal analysis in superconducting RF cavities, International journal of heat and mass transfer 48, No. 21 – 22, 4562-4568 (2005) · Zbl 1189.80035
[77] Deng, H.: Combination of inverse and neural network methods to estimate heat flux, Numerical heat transfer; part A: applications 47, No. 6, 593-607 (2005)
[78] Keanini, R. G.; Ling, X.; Cherukuri, H. P.: A modified sequential function specification finite element-based method for parabolic inverse heat conduction problems, Computational mechanics 36, No. 2, 117-128 (2005) · Zbl 1101.80003
[79] Luo, J.; Shih, A. J.: Inverse heat transfer solution of the heat flux due to induction heating, Journal of manufacturing science and engineering, transactions of the ASME 127, No. 3, 555-563 (2005)
[80] Wang, H. M.: Adaptive-weighting input-estimation approach to nonlinear inverse heat-conduction problems, Journal of thermophysics and heat transfer 19, No. 2, 209-216 (2005)
[81] Zueco, J.; Alhama, F.; Fernández, C. F. González: Numerical nonlinear inverse problem of determining wall heat flux, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 411-418 (2005) · Zbl 1061.65093
[82] Absi, J.: Thermal response of two-layer systems: numerical simulation and experimental validation, Journal of the European ceramic society 25, No. 4, 367-373 (2005)
[83] Battaglia, J. L.; Puigsegur, L.; Cahuc, O.: Estimated temperature on a machined surface using an inverse approach, Experimental heat transfer 18, No. 1, 13-32 (2005)
[84] Ignaczak, J.: The second law of thermodynamics for a two-temperature model of heat transport in metal films, Journal of thermal stresses 28, No. 9, 929-942 (2005)
[85] Kargarnovin, M. H.; Zarei, A. Rezai; Darijani, H.: Wall thickness optimization of thick-walled spherical vessel using thermo-elasto-plastic concept, International journal of pressure vessels and piping 82, No. 5, 379-385 (2005)
[86] Chao, J.: Effect of conjugate heat transfer on MEMS-based thermal shear stress sensor, Numerical heat transfer; part A: applications 48, No. 3, 197-217 (2005)
[87] Gross, S.: Identification of boundary heat fluxes in a falling film experiment using high resolution temperature measurements, International journal of heat and mass transfer 48, No. 25 – 26, 5549-5562 (2005)
[88] Ootao, Y.; Tanigawa, Y.: Three-dimensional solution for transient thermal stresses of functionally graded rectangular plate due to nonuniform heat supply, International journal of mechanical sciences 47, No. 11, 1769-1788 (2005) · Zbl 1192.74090
[89] Alyaev, V. A.; Karchevskii, M. M.; Panfilovich, V. K.: Aircraft and rocket engine theory: a method for determining the conductive heat conduction coefficient of absorbing and radiating fluids, Russian aeronautics 48, No. 1, 61-65 (2005)
[90] Attetkov, A. V.; Volkov, I. K.; Tverskaya, E. S.: Optimum thickness of a cooled wall in local pulse-periodic heating, Journal of engineering physics and thermophysics 78, No. 2, 216-224 (2005)
[91] Girault, M.; Petit, D.; Conduction, Identification Methods In Nonlinear Heat: Part II: Inverse problem using a reduced model, International journal of heat and mass transfer 48, No. 1, 119-133 (2005) · Zbl 1098.80004
[92] Girault, M.; Petit, D.: Identification methods in nonlinear heat conduction, part I: Model reduction, International journal of heat and mass transfer 48, No. 1, 105-118 (2005) · Zbl 1098.80003
[93] Gupta, R.; Tuli, S.: Electro-thermal modelling and analysis for estimation of defect parameters by stepped infrared thermography, NDT and E international 38, No. 1, 11-19 (2005)
[94] Ibrahem, F. S.; Hassanien, I. A.; Bakr, A. A.: Nonclassical thermal effects in Stokes second problem for micropolar fluids, Journal of applied mechanics, transactions ASME 72, No. 4, 468-474 (2005) · Zbl 1111.74450
[95] Kossecka, E.; Kosny, J.: Three-dimensional conduction z-transfer function coefficients determined from the response factors, Energy and buildings 37, No. 4, 301-310 (2005)
[96] Lee, J. F.: Complete heat transfer solutions of an insulated regular polyhedron by using an RPSWT model, Energy conversion and management 46, No. 13 – 14, 2232-2257 (2005)
[97] Sablani, S. S.: Non-iterative estimation of heat transfer coefficients using artificial neural network models, International journal of heat and mass transfer 48, No. 3 – 4, 665-679 (2005) · Zbl 1121.80312
[98] Abidi, L.; Saghir, M. Z.; Labrie, D.: Use of an axial magnetic field to suppress convection in the solvent of ge0.98si0.02 grown by the travelling solvent method, International journal of materials and product technology 22, No. 1 – 3, 2-19 (2005)
[99] Emelianov, V. M.: Convection and heat transfer experiments in supercritical fluid under microgravity: from MIR to ISS, Microgravity science and technology 15, No. 1, 164-169 (2005)
[100] Helal, M. M.; Abd-El-Malek, M. B.: Group method analysis of magneto-elastico-viscous flow along a semi-infinite flat plate with heat transfer, Journal of computational and applied mathematics 173, No. 2, 199-210 (2005) · Zbl 1161.76605
[101] Teamah, M. A.; Dawood, M. M. K.: Effect of angle of approach of the forced flow on the mixed convection heat transfer in air from an infinite isothermal horizontal cylinder, AEJ - Alexandria engineering journal 44, No. 2, 141-155 (2005)
[102] Wang, C. C.; Chen, C. K.: Mixed convection boundary layer flow on inclined wavy plates including the magnetic field effect, International journal of thermal sciences 44, No. 6, 577-586 (2005)
[103] El-Sayed, M. F.; Mohamed, A. A.; Metwaly, T. M. N.: Thermohydrodynamic instabilities of conducting liquid jets in the presence of time-dependent transverse electric fields, Physica A: statistical mechanics and its applications 345, No. 3 – 4, 367-394 (2005)
[104] Elaissi, S.: Electric discharge fluid modelling with the contribution of convective and drift energy effects, EPJ applied physics 32, No. 1, 37-44 (2005)
[105] Tashtoush, B.; Duwairi, H. M.; Al-Salaymeh, A.: Hydromagnetic flow on a power law stretching surface with suction and injection of non-Newtonian fluid, International journal of heat and technology 23, No. 1, 55-60 (2005)
[106] Yakut, K.: Effects of tapes with double-sided delta-winglets on heat and vortex characteristics, Applied energy 80, No. 1, 77-95 (2005)
[107] Zdanski, P. S. B.; Ortega, M. A.; Jr., N. G. C.R. Fico: Heat transfer studies in the flow over shallow cavities, Journal of heat transfer 127, No. 7, 699-712 (2005)
[108] Wiberg, R.; Lior, N.: Heat transfer from a cylinder in axial turbulent flows, International journal of heat and mass transfer 48, No. 8, 1505-1517 (2005)
[109] Webb, R. L.: Next generation devices for electronic cooling with heat rejection to air, Journal of heat transfer 127, No. 1, 2-10 (2005)
[110] Velayati, E.; Yaghoubi, M.: Numerical study of convective heat transfer from an array of parallel bluff plates, International journal of heat and fluid flow 26, No. 1, 80-91 (2005)
[111] Uzol, O.; Camci, C.: Heat transfer, pressure loss and flow field measurements downstream of staggered two-row circular and elliptical pin fin arrays, Journal of heat transfer 127, No. 5, 458-471 (2005)
[112] Thole, K. A.; Knost, D. G.: Heat transfer and film-cooling for the endwall of a first stage turbine vane, International journal of heat and mass transfer 48, No. 25 – 26, 5255-5269 (2005)
[113] Stripf, M.; Schulz, A.; Wittig, S.: Surface roughness effects on external heat transfer of a HP turbine vane, Journal of turbomachinery 127, No. 1, 200-208 (2005)
[114] Polley, G. T.; Abu-Khader, M. M.: Interpreting and applying experimental data for plate-fin surfaces: problems with power law correlation, Heat transfer engineering 26, No. 9, 15-21 (2005)
[115] Peles, Y.: Forced convective heat transfer across a pin fin micro heat sink, International journal of heat and mass transfer 48, No. 17, 3615-3627 (2005) · Zbl 1189.76502
[116] Naterer, G. F.: Surface micro-profiling for reduced energy dissipation and exergy loss in convective heat transfer, Microscale thermophysical engineering 9, No. 3, 213-236 (2005)
[117] Nowak, W.; Stachel, A. A.: Convective heat transfer in air flow around a cylinder at low Reynolds numbers, Journal of engineering physics and thermophysics 78, No. 6, 1214-1221 (2005)
[118] Nithiarasu, P.; Massarotti, N.; Mathur, J. S.: Forced convection heat transfer from solder balls on a printed circuit board using the characteristic based split (CBS) scheme, International journal of numerical methods for heat and fluid flow 15, No. 1, 73-95 (2005) · Zbl 1162.76392
[119] Mahmood, G. I.; Gustafson, R.; Acharya, S.: Experimental investigation of flow structure and Nusselt number in a low-speed linear blade passage with and without leading-edge fillets, Journal of heat transfer 127, No. 5, 499-512 (2005)
[120] Mishra, D. P.; Desai, T.: Numerical study of mixed convection heat transfer from thermal sources on a vertical surface, Modelling, measurement and control B 74, No. 1, 31-44 (2005)
[121] Medic, G.; Durbin, P. A.: Unsteady effects on trailing edge cooling, Journal of heat transfer 127, No. 4, 388-392 (2005)
[122] Maguire, L.; Behnia, M.; Morrison, G.: An experimental and computational study of heat transfer in high power amplifiers, Heat transfer engineering 26, No. 2, 81-92 (2005)
[123] Liu, I. C.; Kong, C. H.: Heat transfer of an electrically conducting viscoelastic fluid over a stretching sheet, Journal of mechanics 21, No. 1, 5-13 (2005)
[124] Lin, S. C.; Chuang, F. S.; Chou, C. A.: Experimental study of the heat sink assembly with oblique straight fins, Experimental thermal and fluid science 29, No. 5, 591-600 (2005)
[125] Khan, W. A.; Culham, J. R.; Yovanovich, M. M.: Fluid flow around and heat transfer from elliptical cylinders: analytical approach, Journal of thermophysics and heat transfer 19, No. 2, 178-185 (2005)
[126] Khan, W. A.; Culham, J. R.; Yovanovich, M. M.: Fluid flow around and heat transfer from an infinite circular cylinder, Journal of heat transfer 127, No. 7, 785-790 (2005)
[127] Khan, S. K.; Sanjayanand, E.: Viscoelastic boundary layer flow and heat transfer over an exponential stretching sheet, International journal of heat and mass transfer 48, No. 8, 1534-1542 (2005) · Zbl 1189.76139
[128] Kanna, P. R.; Das, M. K.: Conjugate forced convection heat transfer from a flat plate by laminar plane wall jet flow, International journal of heat and mass transfer 48, No. 14, 2896-2910 (2005) · Zbl 1189.76488
[129] Harahap, F.; Rudianto, E.: Measurements of steady-state heat dissipation from miniaturized horizontally-based straight rectangular fin arrays, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 3, 280-288 (2005)
[130] Gawad, A. F. A.; Nassief, M. M.; Guirguis, N. M.: Numerical and neural study of flow and heat transfer across an array of integrated circuit components, Journal of engineering and applied science 52, No. 5, 981-1000 (2005)
[131] Dhiman, A. K.; Chhabra, R. P.; Eswaran, V.: Flow and heat transfer across a confined square cylinder in the steady flow regime: effect of Péclet number, International journal of heat and mass transfer 48, No. 21 – 22, 4598-4614 (2005) · Zbl 1189.76112
[132] Arslanturk, C.: Simple correlation equations for optimum design of annular fins with uniform thickness, Applied thermal engineering 25, No. 14 – 15, 2463-2468 (2005)
[133] Ankudinov, V. B.; Klenov, M. G.: An experimental investigation of convection heat transfer in ordered flows of monodisperse droplets, High temperature 43, No. 4, 628-633 (2005)
[134] Ames, F. E.; Dvorak, L. A.; Morrow, M. J.: Turbulent augmentation of internal convection over pins in staggered-pin fin arrays, Journal of turbomachinery 127, No. 1, 183-190 (2005)
[135] Alassar, R. S.: Forced convection past an oblate spheroid at low to moderate Reynolds numbers, Journal of heat transfer 127, No. 9, 1062-1070 (2005)
[136] Al-Salaymeh, A.: On the convective heat transfer from circular cylinders with applications to hot-wire anemometry, International journal of heat and technology 23, No. 2, 109-114 (2005)
[137] Abu-Mulaweh, H. I.: Turbulent mixed convection flow over a forward-facing step - the effect of step heights, International journal of thermal sciences 44, No. 2, 155-162 (2005)
[138] Haldeman, C. W.: Aerodynamic and heat-flux measurements with predictions on a modern one and one-half state high pressure transonic turbine, Journal of turbomachinery 127, No. 3, 522-531 (2005)
[139] Melissari, B.; Argyropoulos, S. A.: Development of a heat transfer dimensionless correlation for spheres immersed in a wide range of Prandtl number fluids, International journal of heat and mass transfer 48, No. 21 – 22, 4333-4341 (2005) · Zbl 1189.76498
[140] Hashizume, K.; Sueoka, Y.: Effect of fins on forced convection heat transfer around a tube in an aligned-arranged tube bundle, Heat transfer - asian research 34, No. 8, 555-563 (2005)
[141] Dorignac, E.: Experimental heat transfer on the windward surface of a perforated flat plate, International journal of thermal sciences 44, No. 9, 885-893 (2005)
[142] Thorpe, S. J.: Blade-tip heat transfer in a transonic turbine, Proceedings of the institution of mechanical engineers, part A: journal of power and energy 219, No. 6, 421-430 (2005)
[143] Rahman, F.; Visser, J. A.; Morris, R. M.: Capturing sudden increase in heat transfer on the suction side of a turbine blade using a Navier-Stokes solver, Journal of turbomachinery 127, No. 3, 552-556 (2005)
[144] Chagnon, J. M.; Bannon, P. R.: Adjustment to injections of mass, momentum, and heat in a compressible atmosphere, Journal of the atmospheric sciences 62, No. 8, 2749-2769 (2005)
[145] Xu, H.: An explicit analytic solution for convective heat transfer in an electrically conducting fluid at a stretching surface with uniform free stream, International journal of engineering science 43, No. 10, 859-874 (2005) · Zbl 1211.76159
[146] Kuo, B. L.: Heat transfer analysis for the Falkner-Skan wedge flow by the differential transformation method, International journal of heat and mass transfer 48, No. 23 – 24, 5036-5046 (2005) · Zbl 1189.76141
[147] Jr., D. C. Look; Krishnan, A.: Corrections based on two-dimensional fin analysis of tip conditions, Journal of thermophysics and heat transfer 19, No. 2, 251-254 (2005)
[148] Madrid, C. N.; Alhama, F.: Discriminated dimensional analysis of the energy equation: application to laminar forced convection along a flat plate, International journal of thermal sciences 44, No. 4, 333-341 (2005)
[149] Mishra, S.; Debroy, T.: A computational procedure for finding multiple solutions of convective heat transfer equations, Journal of physics D: Applied physics 38, No. 16, 2977-2985 (2005)
[150] Sarma, P. K.: An approximate model to predict convective heat transfer in the transition region of laminar- turbulent boundary layer flows on a flat plate, International journal of heat and technology 23, No. 2, 3-8 (2005)
[151] Schneider, W.: Lift, thrust and heat transfer due to mixed convection flow past a horizontal plate of finite length, Journal of fluid mechanics 529, 51-69 (2005) · Zbl 1066.76057
[152] Shevchuk, I. V.: A new type of the boundary condition allowing analytical solution of the thermal boundary layer equation, International journal of thermal sciences 44, No. 4, 374-381 (2005)
[153] Simoes, N.; Tadeu, A.: Fundamental solutions for transient heat transfer by conduction and convection in an unbounded, half-space, slab and layered media in the frequency domain, Engineering analysis with boundary elements 29, No. 12, 1130-1142 (2005) · Zbl 1182.76956
[154] Sparrow, E. M.; Abraham, J. P.: Universal solutions for the streamwise variation of the temperature of a moving sheet in the presence of a moving fluid, International journal of heat and mass transfer 48, No. 15, 3047-3056 (2005) · Zbl 1189.76143
[155] Kundu, B.; Das, P. K.: Optimum profile of thin fins with volumetric heat generation: a unified approach, Journal of heat transfer 127, No. 8, 945-948 (2005)
[156] Arikoglu, A.; Ozkol, I.: Analysis for slip flow over a single free disk with heat transfer, Journal of fluids engineering, transactions of the ASME 127, No. 3, 624-627 (2005) · Zbl 1090.65145
[157] Aydin, O.; Kaya, A.: Laminar boundary layer flow over a horizontal permeable flat plate, Applied mathematics and computation 161, No. 1, 229-240 (2005) · Zbl 1102.76018
[158] Bello-Ochende, T.; Bejan, A.: Constructal multi-scale cylinders in cross-flow, International journal of heat and mass transfer 48, No. 7, 1373-1383 (2005) · Zbl 1189.76165
[159] Bonder, J. F.; Wolanski, N.: Uniqueness of limit solutions to a free boundary problem from combustion, SIAM journal on mathematical analysis 36, No. 1, 172-185 (2005) · Zbl 1083.35039
[160] Cal, R. B.; Wang, X.; Castillo, L.: Transpired turbulent boundary layers subject to forced convection and external pressure gradients, Journal of heat transfer 127, No. 2, 194-198 (2005)
[161] Dhinsa, K.; Bailey, C.; Pericleous, K.: Investigation into the performance of turbulence models for fluid flow and heat transfer phenomena in electronic applications, IEEE transactions on components and packaging technologies 28, No. 4, 686-699 (2005)
[162] Esfahani, J. A.; Jafarian, M. M.: Entropy generation analysis of a flat plate boundary layer with various solution methods, Scientia iranica 12, No. 2, 233-240 (2005) · Zbl 1194.76045
[163] In, W. K.; Chun, T. H.: Assessment of the rans turbulence models for a turbulent flow and heat transfer in a rod bundle, Nuclear technology 150, No. 3, 231-250 (2005)
[164] Jha, R. K.; Chakraborty, S.; Considerations, Genetic Algorithm-Based Optimal Design Of Plate Fins Following Minimum Entropy Generation: Proceedings of the institution of mechanical engineers, Part C: Journal of mechanical engineering science 219, No. 8, 757-765 (2005)
[165] Gavnholt, J.: Up-gradient transport in a probabilistic transport model, Physics of plasmas 12, No. 8, 1-4 (2005)
[166] Cossali, G. E.: Periodic heat transfer by forced laminar boundary layer flow over a semi-infinite flat plate, International journal of heat and mass transfer 48, No. 23 – 24, 4846-4853 (2005) · Zbl 1189.76481
[167] Eveloy, V.; Rodgers, P.: Prediction of electronic component-board transient conjugate heat transfer, IEEE transactions on components and packaging technologies 28, No. 4, 817-829 (2005)
[168] Gomaa, H.; Taweel, A. M. Al: Effect of oscillatory motion on heat transfer at vertical flat surfaces, International journal of heat and mass transfer 48, No. 8, 1494-1504 (2005) · Zbl 1189.76484
[169] Kim, S. K.; Kim, S. Y.; Choi, Y. D.: Amplification of boundary layer instability by hot wall thermal oscillation in a side heated cavity, Physics of fluids 17, No. 1 (2005) · Zbl 1187.76273
[170] Li, J.; Li, J. C. M.: Temperature distribution in workpiece during scratching and grinding, Materials science and engineering A 409, No. 1 – 2, 108-119 (2005)
[171] Motsa, S. S.; Sibanda, P.: Investigation of compliancy effects on the inviscid instability in fluid flow over a flat plate with heat transfer, International journal of numerical methods for heat and fluid flow 15, No. 6, 504-516 (2005) · Zbl 1231.76100
[172] Padet, J.: Transient convective heat transfer, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 1, 74-95 (2005)
[173] Paul, M. C.; Rees, D. A. S.; Wilson, M.: The influence of higher order effects on the linear wave instability of vertical free convective boundary layer flow, International journal of heat and mass transfer 48, No. 3 – 4, 809-817 (2005) · Zbl 1121.76333
[174] Rebay, M.; Padet, J.: Parametric study of unsteady forced convection with pressure gradient, International journal of engineering science 43, No. 8 – 9, 655-667 (2005) · Zbl 1211.76086
[175] Thiruvengadam, M.; Nie, J. H.; Armaly, B. F.: Bifurcated three-dimensional forced convection in plane symmetric sudden expansion, International journal of heat and mass transfer 48, No. 15, 3128-3139 (2005) · Zbl 1189.76506
[176] Yuan, G.; Wang, G. D.; Liu, X. H.: Numerical simulation of heat transfer process under ultra fast cooling for hot strip, Kang t’ieh/iron and steel (Peking) 40 (SUPPL.), 610-613 (2005)
[177] Florio, L. A.; Harnoy, A.: Feasibility study of unconventional cooling of electronic components by vibrating plates at close proximity, Numerical heat transfer; part A: applications 47, No. 10, 997-1024 (2005)
[178] Yapici, H.; Basturk, G.: Numerical solutions of transient conjugate heat transfer and thermally induced stress distribution in a heated and rotating hollow disk, Energy conversion and management 46, No. 1, 61-84 (2005)
[179] Olutimayin, S. O.; Simonson, C. J.: Measuring and modeling vapor boundary layer growth during transient diffusion heat and moisture transfer in cellulose insulation, International journal of heat and mass transfer 48, No. 16, 3319-3330 (2005)
[180] Liu, Z. H.; Zhu, Q. Z.: Heat transfer in a subcooled water film falling across a horizontal heated tube, Chemical engineering communications 192, No. 10 – 12, 1334-1346 (2005)
[181] Shevtsova, V. M.; Mialdun, A.; Mojahed, M.: A study of heat transfer in liquid bridges near onset of instability, Journal of non-equilibrium thermodynamics 30, No. 3, 261-281 (2005)
[182] Subramanian, R.; Jog, M. A.: Enhancement of heat transfer by an electric field for a drop translating at intermediate Reynolds number, Journal of heat transfer 127, No. 10, 1087-1095 (2005)
[183] Lushchik, V. G.; Yakubenko, A. E.: Friction and heat transfer in the boundary layer on a permeable surface with injection of foreign gas, High temperature 43, No. 6, 881-889 (2005)
[184] Chen, Q.: Heat transfer from a chemically oxidized or anodized copper plate to liquid helium, International journal of heat and mass transfer 48, No. 21 – 22, 4652-4656 (2005)
[185] Ezzat, M. A.; Zakaria, M.: Heat transfer with thermal relaxation to a perfectly conducting polar fluid, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 3, 189-198 (2005)
[186] Lok, Y. Y.: Steady mixed convection flow of a micropolar fluid near the stagnation point on a vertical surface, International journal of numerical methods for heat and fluid flow 15, No. 7, 654-670 (2005)
[187] Msaad, Y.: A numerical methodology for coupled diffusive transfer modeling: application to concrete subjected to heating, Numerical heat transfer, part B: fundamentals 48, No. 1, 89-101 (2005)
[188] Pantokratoras, A.: Forced and mixed convection boundary layer flow along a flat plate with variable viscosity and variable Prandtl number: new results, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1085-1094 (2005)
[189] Partha, M. K.; Murthy, P. V. S.N.; Rajasekhar, G. P.: Effect of viscous dissipation on the mixed convection heat transfer from an exponentially stretching surface, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 4, 360-366 (2005)
[190] Pozzi, A.; Tognaccini, R.: Influence of the Prandtl number on the unsteady thermo-fluid dynamic field around a thick plate, Meccanica 40, No. 3, 251-266 (2005) · Zbl 1158.76322
[191] Seddeek, M. A.; Salem, A. M.: Laminar mixed convection adjacent to vertical continuously stretching sheets with variable viscosity and variable thermal diffusivity, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1048-1055 (2005)
[192] Sharma, P. R.; Ariel, P. D.; Kumar, H.: Numerical solution of flow and heat transfer of a non-Newtonian fluid over a stretching sheet, Modelling, measurement and control B 74, No. 1, 45-62 (2005)
[193] Soares, A. A.; Ferreira, J. M.; Chhabra, R. P.: Flow and forced convection heat transfer in crossflow of non-Newtonian fluids over a circular cylinder, Industrial and engineering chemistry research 44, No. 15, 5815-5827 (2005)
[194] Dahm, W. J. A.: Effects of heat release on turbulent shear flows. Part 2. Turbulent mixing layers and the equivalence principle, Journal of fluid mechanics 540, 1-19 (2005) · Zbl 1082.76056
[195] Kaer, S. K.: Straw combustion on slow-moving grates - a comparison of model predictions with experimental data, Biomass and bioenergy 28, No. 3, 307-320 (2005)
[196] Aydin, O.: Effects of viscous dissipation on the heat transfer in a forced pipe flow. Part 2: thermally developing flow, Energy conversion and management 46, No. 18 – 19, 3091-3102 (2005)
[197] Aydin, O.: Effects of viscous dissipation on the heat transfer in forced pipe flow. Part 1: both hydrodynamically and thermally fully developed flow, Energy conversion and management 46, No. 5, 757-769 (2005)
[198] Bae, J. H.; Yoo, J. Y.; Choi, H.: Direct numerical simulation of turbulent supercritical flows with heat transfer, Physics of fluids 17, No. 10 (2005) · Zbl 1188.76008
[199] Barletta, A.: On the existence of parallel flow for mixed convection in an inclined duct, International journal of heat and mass transfer 48, No. 10, 2042-2049 (2005) · Zbl 1189.76478
[200] Barletta, A.; Lazzari, S.: Forced and free flow in a vertical annular duct under nonaxisymmetric conditions, Journal of heat transfer 127, No. 6, 606-613 (2005)
[201] Barletta, A.; Magyari, E.; Keller, B.: Dual mixed convection flows in a vertical channel, International journal of heat and mass transfer 48, No. 23 – 24, 4835-4845 (2005) · Zbl 1189.76479
[202] Bazdidi-Tehrani, F.; Nezamabadi, M.: Effect of gr/re on mixed convection and combined mixed convection-radiation heat transfer within a vertical channel with variable wall temperature, Scientia iranica 12, No. 2, 178-189 (2005) · Zbl 1194.76266
[203] Ben-Mansour, R.; Sahin, A. Z.: Entropy generation in developing laminar fluid flow through a circular pipe with variable properties, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 1, 1-11 (2005)
[204] Bertola, V.; Cafaro, E.: Geometric approach to laminar convection, Journal of thermophysics and heat transfer 19, No. 4, 581-583 (2005)
[205] Bunker, R.: Enhancement of heat transfer in a short rectangular channel with substantial deflection of inlet velocity from axial direction, Heat transfer research 36, No. 4, 311-318 (2005)
[206] Campo, A.: Quick identification of gases for enhancing heat transfer in turbulent pipe flows using standard correlation equations for the convective coefficient and the friction factor, Applied thermal engineering 25, No. 13, 2029-2038 (2005)
[207] Chen, C. K.; Wu, L. W.; Yang, Y. T.: Estimation of unknown outer-wall heat flux in turbulent circular pipe flow with conduction in the pipe wall, International journal of heat and mass transfer 48, No. 19 – 20, 3971-3981 (2005) · Zbl 1188.76216
[208] Churchill, S. W.; Yu, B.; Kawaguchi, Y.: The accuracy and parametric sensitivity of algebraic models for turbulent flow and convection, International journal of heat and mass transfer 48, No. 25 – 26, 5488-5503 (2005) · Zbl 1188.76217
[209] Erdogan, M. E.; Imrak, C. E.: The effects of duct shape on the Nusselt number, Mathematical and computational applications 10, No. 1, 79-88 (2005)
[210] Hu, Z. H.; Yang, Y. H.; Zhou, F. D.: Study on the heat transfer of cross flow in vertical upward tubes, Journal of zhejiang university: science \(6 A(10)\), 1128-1131 (2005)
[211] Ichimiya, K.; Yamada, Y.: Mixed convection in a horizontal square duct with local inner heating, Heat transfer - asian research 34, No. 3, 160-170 (2005)
[212] Kurganov, V. A.; Maslakova, I. V.: Heat transfer and pressure drop in a round tube away from the inlet upon heating of gases and gas mixtures with variable properties, Thermal engineering (English translation of teploenergetika) 52, No. 3, 171-178 (2005)
[213] Lin, W.; Armfield, S. W.: Long-term behavior of cooling fluid in a vertical cylinder, International journal of heat and mass transfer 48, No. 1, 53-66 (2005) · Zbl 1121.76305
[214] Liu, Q. Y.; Luke, E. A.; Cinnella, P.: Coupling heat transfer and fluid flow solvers for multidisciplinary simulations, Journal of thermophysics and heat transfer 19, No. 4, 417-427 (2005)
[215] Lu, G. Y.: Experimental study on heat transfer characteristics of flow in a narrow annular duct, Dongli gongcheng/power engineering 25, No. 2, 275-279 (2005)
[216] Meng, J. A.: Field-coordination analysis and numerical study on turbulent convective heat transfer enhancement, Journal of enhanced heat transfer 12, No. 1, 73-83 (2005)
[217] Mil’man, O. O.; Fetisov, D. O.: Visualization of flow under conditions of natural circulation in heated pipes, High temperature 43, No. 3, 476-478 (2005)
[218] Mitrovic, J.; Maletic, B.: Effect of thermal asymmetry on heat transfer in a laminar annular flow, Chemical engineering and technology 28, No. 10, 1144-1150 (2005)
[219] Ohara, T.; Torii, D.: Molecular dynamics study of thermal phenomena in an ultrathin liquid film sheared between solid surfaces: the influence of the crystal plane on energy and momentum transfer at solid – liquid interfaces, Journal of chemical physics 122, No. 21, 1-9 (2005)
[220] Sabry, M. N.: Compact thermal models for internal convection, IEEE transactions on components and packaging technologies 28, No. 1, 58-64 (2005)
[221] Sahin, A. Z.; Kalyon, M.: Maintaining uniform surface temperature along pipes by insulation, Energy 30, No. 5, 637-647 (2005)
[222] Wei, T.: Scaling heat transfer in fully developed turbulent channel flow, International journal of heat and mass transfer 48, No. 25 – 26, 5284-5296 (2005) · Zbl 1188.76215
[223] Wong, K. L.: The reliable simple one-dimensional 64-CPWTR model applied to the two-dimensional heat transfer problem of an insulated rectangular duct in an air conditioning or refrigeration system, International journal of refrigeration 28, No. 7, 1029-1039 (2005)
[224] Wu, T. H.: The study of buoyancy influence on mean flow and heat transfer under conditions of mixed convection in annular channels, Heat transfer - asian research 34, No. 1, 9-17 (2005)
[225] Xu, F.; Guo, L.; Bai, B.: Mixed convective heat transfer of water in a pipe under supercritical pressure, Heat transfer - asian research 34, No. 8, 608-619 (2005)
[226] Yu, B.: The computed characteristics of turbulent flow and convection in concentric circular annuli. Part II. Uniform heating on the inner surface, International journal of heat and mass transfer 48, No. 3 – 4, 621-634 (2005) · Zbl 1097.76036
[227] Yu, B.: The computed characteristics of turbulent flow and convection in concentric circular annuli. Part IV: Generalizations, International journal of heat and mass transfer 48, No. 15, 3057-3072 (2005) · Zbl 1189.76288
[228] Yu, B.: The computed characteristics of turbulent flow and convection in concentric circular annuli. Part III. Alternative thermal boundary conditions, International journal of heat and mass transfer 48, No. 3 – 4, 635-646 (2005) · Zbl 1097.76037
[229] Zhao, Z.; Shi, Y.: Experimental investigations of flow resistance and convection heat transfer and prediction of cold heat-storage characteristics for a phase-change emulsion in a coiled circular tube, Heat transfer engineering 26, No. 6, 32-44 (2005)
[230] Vazquez, M. S.; Rodriguez, W. V.; Issa, R.: Effects of ridged walls on the heat transfer in a heated square duct, International journal of heat and mass transfer 48, No. 10, 2050-2063 (2005) · Zbl 1189.76444
[231] Viswanathan, A. K.; Tafti, D. K.: Detached eddy simulation of turbulent flow and heat transfer in a ribbed duct, journal of fluids engineering, Transactions of the ASME 127, No. 5, 888-896 (2005)
[232] Taslim, M. E.: Rib fin effects on the overall equivalent heat transfer coefficient in a rib-roughened cooling channel, International journal of heat exchangers 6, No. 2, 135-152 (2005)
[233] Garcia, A.; Vicente, P. G.; Viedma, A.: Experimental study of heat transfer enhancement with wire coil inserts in laminar-transition-turbulent regimes at different Prandtl numbers, International journal of heat and mass transfer 48, No. 21 – 22, 4640-4651 (2005)
[234] Kim, K. Y.; Choi, J. Y.: Shape optimization of a dimpled channel to enhance turbulent heat transfer, Numerical heat transfer; part A: applications 48, No. 9, 901-915 (2005)
[235] Klaczak, A.: Heat transfer by turbulent water-ethylene glycol solution flow in a pipe with twisted - tape inserts, International journal of heat and technology 23, No. 2, 51-57 (2005)
[236] Korichi, A.; Oufer, L.: Numerical heat transfer in a rectangular channel with mounted obstacles on upper and lower walls, International journal of thermal sciences 44, No. 7, 644-655 (2005)
[237] Ligrani, P. M.; Burgess, N. K.; Won, S. Y.: Nusselt numbers and flow structure on and above a shallow dimpled surface within a channel including effects of inlet turbulence intensity level, Journal of turbomachinery 127, No. 2, 321-330 (2005)
[238] Luo, D. D.: Simulation of turbulent flow and forced convection in a triangular duct with internal ribbed surfaces, Numerical heat transfer; part A: applications 48, No. 5, 447-459 (2005)
[239] Luo, D. D.: Flow and forced-convection characteristics of turbulent flow through parallel plates with periodic transverse ribs, Numerical heat transfer; part A: applications 48, No. 1, 43-58 (2005)
[240] Oyakawa, K.: Heat transfer enhancement in duct with blunt body inserted close to its wall, Heat transfer - asian research 34, No. 5, 336-349 (2005)
[241] Ozceyhan, V.: Conjugate heat transfer and thermal stress analysis of wire coil inserted tubes that are heated externally with uniform heat flux, Energy conversion and management 46, No. 9 – 10, 1543-1559 (2005)
[242] Ozceyhan, V.; Altuntop, N.: Heat transfer and thermal stress analysis in grooved tubes, Sadhana - Academy Proceedings in engineering sciences 30, No. 4, 537-553 (2005)
[243] Papadopoulos, P. K.; Hatzikonstantinou, P. M.: Thermally developing flow in curved square ducts with internal fins, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 1, 30-38 (2005)
[244] Park, J.; Ligrani, P. M.: Numerical predictions of heat transfer and fluid flow characteristics for seven different dimpled surfaces in a channel, Numerical heat transfer; part A: applications 47, No. 3, 209-232 (2005)
[245] Piller, M.: Direct numerical simulation of turbulent forced convection in a pipe, International journal for numerical methods in fluids 49, No. 6, 583-602 (2005) · Zbl 1078.76038
[246] Premachandran, B.; Balaji, C.: Mixed convection heat transfer from a horizontal channel with protruding heat sources, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 6, 510-518 (2005) · Zbl 1189.76503
[247] Rakshit, D.; Balaji, C.: Thermodynamic optimization of conjugate convection from a finned channel using genetic algorithms, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 6, 535-544 (2005)
[248] Saha, S. K.; Mallick, D. N.: Heat transfer and pressure drop characteristics of laminar flow in rectangular and square plain ducts and ducts with twisted-tape inserts, Journal of heat transfer 127, No. 9, 966-977 (2005)
[249] Sarma, P. K.: A combined approach to predict friction coefficients and convective heat transfer characteristics in A tube with twisted tape inserts for a wide range of re and pr, International journal of thermal sciences 44, No. 4, 393-398 (2005)
[250] Sparrow, E. M.; Abraham, J. P.; Chevalier, P. W.: A DoS-enhanced numerical simulation of heat transfer and fluid flow through an array of offset fins with conjugate heating in the bounding solid, Journal of heat transfer 127, No. 1, 27-33 (2005)
[251] Wang, L.; Sunden, B.: Experimental investigation of local heat transfer in a square duct with continuous and truncated ribs, Experimental heat transfer 18, No. 3, 179-197 (2005)
[252] Wang, L. W.: Duct flow passing through a horizontal channel with tandem cylinder sources, Experimental heat transfer 18, No. 2, 95-108 (2005)
[253] Watanabe, K.; Takahashi, T.: LES and measurement of heat transfer and flow in rectangular channels with crossed angled ribs, nihon kikai gakkai ronbunshu, B hen/transactions of the Japan society of mechanical engineers, part B 71, No. 705, 1459-1464 (2005)
[254] Wellsandt, S.; Vamling, L.: Evaporation of R407C and R410A in a horizontal herringbone microfin tube: heat transfer and pressure drop, International journal of refrigeration 28, No. 6, 901-911 (2005)
[255] Wu, H. W.; Perng, S. W.: Turbulent flow and heat transfer enhancement of mixed convection over heated blocks in a channel, International journal of numerical methods for heat and fluid flow 15, No. 2, 205-225 (2005)
[256] Ahn, J.; Choi, H.; Lee, J. S.: Large eddy simulation of flow and heat transfer in a channel roughened by square or semicircle ribs, Journal of turbomachinery 127, No. 2, 263-269 (2005)
[257] Alawadhi, E. M.: Forced convection cooling enhancement for rectangular blocks using a wavy plate, IEEE transactions on components and packaging technologies 28, No. 3, 525-533 (2005)
[258] Baskaya, S.; Erturhan, U.; Sivrioglu, M.: Experimental investigation of mixed convection from an array of discrete heat sources at the bottom of a horizontal channel, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 1, 56-63 (2005)
[259] Burgess, N. K.; Ligrani, P. M.: Effects of dimple depth on channel Nusselt numbers and friction factors, Journal of heat transfer 127, No. 8, 839-847 (2005)
[260] Casarsa, L.; Arts, T.: Experimental investigation of the aerothermal performance of a high blockage rib-roughened cooling channel, Journal of turbomachinery 127, No. 3, 580-588 (2005)
[261] Cha, S. C.: Optimization of the heat transfer rate and pressure drop of inside profiled tubes - part 1, Chemical engineering and technology 28, No. 2, 204-209 (2005)
[262] Chang, S. W.: Heat transfer in a twin-blow narrow channel with two opposite walls roughened by skewed ribs arranged in staggered manner, International journal of thermal sciences 44, No. 7, 694-708 (2005)
[263] Chang, S. W.; Liou, T. M.; Juan, W. C.: Influence of channel height on heat transfer augmentation in rectangular channels with two opposite rib-roughened walls, International journal of heat and mass transfer 48, No. 13, 2806-2813 (2005)
[264] Chang, S. W.; Liou, T. M.; Lu, M. H.: Heat transfer of rectangular narrow channel with two opposite scale-roughened walls, International journal of heat and mass transfer 48, No. 19 – 20, 3921-3931 (2005)
[265] Chang, S. W.; Yu, K. W.; Lu, M. H.: Heat transfers in tubes fitted with single, twin, and triple twisted tapes, Experimental heat transfer 18, No. 4, 279-294 (2005)
[266] Chiang, K. F.; Chang, S. W.; Chen, P. H.: Forced convective heat transfer of 45Â^\(\circ \) rib-roughened fin flows, Experimental thermal and fluid science 29, No. 6, 743-754 (2005)
[267] Eiamsa-Ard, S.; Promvonge, P.: Enhancement of heat transfer in a tube with regularly-spaced helical tape swirl generators, Solar energy 78 (4 SPEC. ISS.), 483-494 (2005)
[268] Fabbri, G.: Optimum cross-section design of internally finned tubes cooled by a viscous fluid, Control engineering practice 13, No. 7, 929-938 (2005)
[269] Gradeck, M.; Hoareau, B.; Lebouché, M.: Local analysis of heat transfer inside corrugated channel, International journal of heat and mass transfer 48, No. 10, 1909-1915 (2005)
[270] Hsieh, K. J.; Lien, F. S.: Conjugate turbulent forced convection in a channel with an array of ribs, International journal of numerical methods for heat and fluid flow 15, No. 5, 462-482 (2005)
[271] Igarashi, T.; Nakamura, H.; Morita, T.: Pressure drop and heat transfer of a rectangular block on the wall of parallel plates channel (effect of the opening ratio), nihon kikai gakkai ronbunshu, B hen/transactions of the Japan society of mechanical engineers, part B 71, No. 701, 208-214 (2005)
[272] Jia, R.; Sunden, B.; Faghri, M.: Computational analysis of heat transfer enchancement in square ducts with V-shaped ribs: turbine blade cooling, Journal of heat transfer 127, No. 4, 425-433 (2005)
[273] Ali, A. H. H.: Characteristics of flow and heat transfer for in-line plate segments inside channel used for photovoltaic modules thermal regulation, Applied thermal engineering 25, No. 8 – 9, 1381-1401 (2005)
[274] Cheng, X.: Experimental studies on critical heat flux in vertical tight 37-rod bundles using freon-12, International journal of multiphase flow 31, No. 10 – 11, 1198-1219 (2005) · Zbl 1135.76384
[275] Choi, H. S.; Suzuki, K.: Large eddy simulation of turbulent flow and heat transfer in a channel with one wavy wall, International journal of heat and fluid flow 26, No. 5, 681-694 (2005)
[276] Costa, V. A. F.; Oliveira, M. S. A.; Sousa, A. C. M.: Laminar natural convection in a vertical stack of parallelogrammic partial enclosures with variable geometry, International journal of heat and mass transfer 48, No. 3 – 4, 779-792 (2005) · Zbl 1121.76398
[277] Dirker, J.; Malan, A. G.; Meyer, J. P.: Thermal characterisation of rectangular cooling shapes in heat generating mediums - a three-dimensional investigation, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 391-398 (2005)
[278] Dreitser, G. A.; Lobanov, I. E.: Simulation of the limiting enhancement of heat transfer in tubes by artificial turbulization of a flow for different heat carriers with constant and variable thermophysical properties, Heat transfer research 36, No. 4, 331-341 (2005)
[279] Dutta, P.; Hossain, A.: Internal cooling augmentation in rectangular channel using two inclined baffles, International journal of heat and fluid flow 26, No. 2, 223-232 (2005)
[280] Egner, M. W.; Burmeister, L. C.: Heat transfer for laminar flow in spiral ducts of rectangular cross section, Journal of heat transfer 127, No. 3, 352-356 (2005)
[281] Ergin, S.; Ota, M.: A study of the effect of duct width on fully developed turbulent flow characteristics in a corrugated duct, Heat transfer engineering 26, No. 2, 54-62 (2005)
[282] Facao, J.; Oliveira, A. C.: Modeling laminar heat transfer in a curved rectangular duct with a computational fluid dynamics code, Numerical heat transfer; part A: applications 48, No. 2, 165-177 (2005)
[283] Ho, C. D.; Yeh, H. M.; Yang, W. Y.: Double-pass flow heat transfer in a circular conduit by inserting a concentric tube for improved performance, Chemical engineering communications 192, No. 1 – 3, 237-255 (2005)
[284] Inaba, H.: Flow and heat transfer characteristics of drag reducing surfactant solution in a helically coiled pipe, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 10, 940-952 (2005)
[285] Kaya, O.; Teke, I.: Turbulent forced convection in a helically coiled square duct with one uniform temperature and three adiabatic walls, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 2, 129-137 (2005)
[286] Khaled, A. R. A.; Vafai, K.: Analysis of flow and heat transfer inside nonisothermal squeezed thin films, Numerical heat transfer; part A: applications 47, No. 10, 981-996 (2005)
[287] Khanafer, K.; Lightstone, M. F.: Computational modeling of transport phenomena in chemical vapor deposition, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 6, 483-494 (2005)
[288] Li, Y.; Mei, N.: The formation of rising liquid thin film on the fluted surface of a horizontal tube, Heat transfer - asian research 34, No. 6, 396-406 (2005)
[289] Manglik, R. M.; Zhang, J.; Muley, A.: Low Reynolds number forced convection in three-dimensional wavy-plate-fin compact channels: fin density effects, International journal of heat and mass transfer 48, No. 8, 1439-1449 (2005) · Zbl 1189.76497
[290] Marin, L.: Two-dimensional thermal analysis of a polygonal fin with two tubes on a square pitch, International journal of heat and mass transfer 48, No. 14, 3018-3033 (2005) · Zbl 1189.80022
[291] Meng, J. A.; Liang, X. G.; Li, Z. X.: Field synergy optimization and enhanced heat transfer by multi-longitudinal vortexes flow in tube, International journal of heat and mass transfer 48, No. 16, 3331-3337 (2005) · Zbl 1189.76170
[292] Ozalp, A. A.: A computational study to predict the combined effects of surface roughness and heat flux conditions on converging-nozzle flows, Transactions of the canadian society for mechanical engineering 29, No. 1, 67-80 (2005)
[293] Rathnasamy, R.; Arakeri, J. H.; Srinivasan, K.: Experimental investigation of forced convective heat transfer to air, liquids, and liquid mixtures in a long narrow channel, Proceedings of the institution of mechanical engineers, part E: journal of process mechanical engineering 219, No. 4, 311-317 (2005)
[294] Ridouane, E. H.; Campo, A.; Chang, J. Y.: Natural convection patterns in right-angled triangular cavities with heated vertical sides and cooled hypotenuses, Journal of heat transfer 127, No. 10, 1181-1186 (2005)
[295] Rosaguti, N. R.; Fletcher, D. F.; Haynes, B. S.: Laminar flow and heat transfer in a periodic serpentine channel, Chemical engineering and technology 28, No. 3, 353-361 (2005)
[296] Salim, M. M.; France, D. M.: Post-CHF axial- and swirl-flow heat transfer in small horizontal tubes, Journal of thermophysics and heat transfer 19, No. 2, 163-171 (2005)
[297] Semma, E.: The effect of wall temperature fluctuations on the heat transfer and fluid flow occuring in a liquid enclosure, International journal of heat and fluid flow 26 (4 SPEC. ISS.), 547-557 (2005)
[298] Tarunin, E. L.; Alikina, O. N.: Calculation of heat transfer in ranque-hilcsh’s vortex tube, International journal for numerical methods in fluids 48, No. 1, 107-113 (2005) · Zbl 1063.76084
[299] Tiwari, S.: Numerical prediction of flow and heat transfer in a channel in the presence of a built-in circular tube with and without an integral wake splitter, International journal of heat and mass transfer 48, No. 2, 439-453 (2005) · Zbl 1121.76319
[300] Ushakov, V. M.; Matvienko, O. V.: Numerical investigation of the heat exchange and firing of reactive channel walls by a high-temperature swirling-gas glow, Journal of engineering physics and thermophysics 78, No. 3, 541-547 (2005)
[301] Wang, C. C.; Chen, C. K.: Forced convection in micropolar fluid flow through a wavy-wall channel, Numerical heat transfer; part A: applications 48, No. 9, 879-900 (2005)
[302] Yanase, S.; Mondal, R. N.; Kaga, Y.: Numerical study of non-isothermal flow with convective heat transfer in a curved rectangular duct, International journal of thermal sciences 44, No. 11, 1047-1060 (2005)
[303] Yin, J. X.; Li, G. J.; Feng, Z. P.: Numerical study of periodically fully developed convection heat transfer in two kinds of wavy channels, Reneng dongli gongcheng/journal of engineering for thermal energy and power 20, No. 3, 250-254 (2005)
[304] Zhang, C. L.; Yang, L.: Modeling of supercritical CO2 flow through short tube orifices, journal of fluids engineering, Transactions of the ASME 127, No. 6, 1194-1198 (2005)
[305] Zhang, L. Z.: Turbulent three-dimensional air flow and heat transfer in a cross-corrugated triangular duct, Journal of heat transfer 127, No. 10, 1151-1158 (2005)
[306] Attia, H. A.: The effect of suction and injection on the unsteady flow between two parallel plates with variable properties, Tamkang journal of science and engineering 8, No. 1, 17-22 (2005)
[307] Bhowmik, H.; Tou, K. W.: An experimental study of transient heat transfer from discrete heat sources in water cooled vertical rectangular channel, Journal of electronic packaging, transactions of the ASME 127, No. 3, 193-199 (2005)
[308] Bhowmik, H.; Tou, K. W.: Experimental study of transient forced convection heat transfer from simulated electronic chips, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 599-605 (2005)
[309] Bhowmik, H.; Tou, K. W.: Study of transient forced convection heat transfer from discrete heat sources in a FC-72 cooled vertical channel, International journal of thermal sciences 44, No. 5, 499-505 (2005)
[310] Bhowmik, H.; Tso, C. P.; Tou, K. W.: Analyses of convection heat transfer from discrete heat sources in a vertical rectangular channel, Journal of electronic packaging, transactions of the ASME 127, No. 3, 215-222 (2005)
[311] Bouvier, P.; Stouffs, P.; Bardon, J. P.: Experimental study of heat transfer in oscillating flow, International journal of heat and mass transfer 48, No. 12, 2473-2482 (2005)
[312] Chang, T. S.; Shiau, Y. H.: Flow pulsation and baffle’s effects on the opposing mixed convection in a vertical channel, International journal of heat and mass transfer 48, No. 19 – 20, 4190-4204 (2005) · Zbl 1188.76247
[313] Chen, Y. C.: Stability of an oscillatory shear flow in a differentially heated vertical channel, International journal of heat and mass transfer 48, No. 17, 3591-3603 (2005) · Zbl 1189.76190
[314] Guo, B.: Analytical solutions for steady and transient temperatures in oil pipelines, Petroleum science and technology 23, No. 3 – 4, 307-325 (2005)
[315] Holley, B.; Faghri, A.: Analysis of pulsating heat pipe with capillary Wick and varying channel diameter, International journal of heat and mass transfer 48, No. 13, 2635-2651 (2005) · Zbl 1189.76631
[316] Korichi, A.; Oufer, L.: Unsteady heat transfer and pressure drop in channels with obtacles mounted on the upper and lower walls, Numerical heat transfer; part A: applications 48, No. 7, 711-729 (2005)
[317] Krayev, V. M.: Heat exchange and hydrodynamics of turbulent flows under conditions of hydrodynamic nonstationarity, Russian aeronautics 48, No. 3, 57-62 (2005)
[318] Leveque, J.; Rezzoug, A.: Dimensionless and analytical studies of the thermal stability of a high temperature superconducting tube, International journal of heat and mass transfer 48, No. 14, 2815-2821 (2005) · Zbl 1189.82132
[319] Mai, T. H.; Popa, C. V.; Polidori, G.: Transient mixed convection flow instabilities in a vertical pipe, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 3, 216-225 (2005)
[320] Moon, J. W.; Kim, S. Y.; Cho, H. H.: Frequency-dependent heat transfer enhancement from rectangular heated block array in a pulsating channel flow, International journal of heat and mass transfer 48, No. 23 – 24, 4904-4913 (2005)
[321] Poskas, R.; Poskas, P.; Sabanskis, D.: Local turbulent opposing mixed convection heat transfer in inclined flat channel for unstably stratified airflow, International journal of heat and mass transfer 48, No. 5, 956-964 (2005)
[322] Umavathi, J. C.: Unsteady two-fluid flow and heat transfer in a horizontal channel, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 2, 81-90 (2005)
[323] Valueva, E. P.: Hydrodynamics and heat transfer in pulsating turbulent pipe flow of a liquid of variable properties, High temperature 43, No. 6, 890-899 (2005)
[324] Valueva, E. P.: Hydrodynamics and heat transfer in turbulent pipe flow of liquid under conditions of monotonic time variation of the flow rate, High temperature 43, No. 2, 203-213 (2005)
[325] Wan, Q.: Forced convective cooling via acoustic streaming in a narrow channel established by a vibrating piezoelectric bimorph, flow, Turbulence and combustion 74, No. 2, 195-206 (2005) · Zbl 1190.76163
[326] Wang, X.; Zhang, N.: Numerical analysis of heat transfer in pulsating turbulent flow in a pipe, International journal of heat and mass transfer 48, No. 19 – 20, 3957-3970 (2005) · Zbl 1188.76218
[327] Wu, H. W.; Lau, C. T.: Unsteady turbulent heat transfer of mixed convection in a reciprocating circular ribbed channel, International journal of heat and mass transfer 48, No. 13, 2708-2721 (2005) · Zbl 1189.76287
[328] Yapici, H.: Numerical study on transient local entropy generation in pulsating turbulent flow through an externally heated pipe, Sadhana - Academy Proceedings in engineering sciences 30, No. 5, 625-648 (2005) · Zbl 1185.76790
[329] Zhang, L. Z.: Numerical study of periodically fully developed flow and heat transfer in cross-corrugated triangular channels in transitional flow regime, Numerical heat transfer; part A: applications 48, No. 4, 387-405 (2005)
[330] Artemov, V. I.; Leontiev, A. I.; Polyakov, A. F.: Numerical simulation of convection-conduction heat transfer in a block of rectangular microchannels, High temperature 43, No. 4, 580-594 (2005)
[331] Asako, Y.; Nakayama, K.; Shinozuka, T.: Effect of compressibility on gaseous flows in a micro-tube, International journal of heat and mass transfer 48, No. 23 – 24, 4985-4994 (2005)
[332] Asako, Y.; Toriyama, H.: Heat transfer characteristics of gaseous flows in microchannels, Microscale thermophysical engineering 9, No. 1, 15-31 (2005)
[333] Asinari, P.: Numerical prediction of turbulent convective heat transfer in mini/micro channels for carbon dioxide at supercritical pressure, International journal of heat and mass transfer 48, No. 18, 3864-3879 (2005) · Zbl 1189.76421
[334] Bower, C.: Heat transfer in water-cooled silicon carbide milli-channel heat sinks for high power electronic applications, Journal of heat transfer 127, No. 1, 59-65 (2005)
[335] Croce, G.; D’agaro, P.: Numerical simulation of roughness effect on microchannel heat transfer and pressure drop in laminar flow, Journal of physics D: Applied physics 38, No. 10, 1518-1530 (2005)
[336] Eason, C.: Direct comparison between five different microchannels, part 1: channel manufacture and measurement, Heat transfer engineering 26, No. 3, 79-88 (2005)
[337] Gamrat, G.; Favre-Marinet, M.; Asendrych, D.: Conduction and entrance effects on laminar liquid flow and heat transfer in rectangular microchannels, International journal of heat and mass transfer 48, No. 14, 2943-2954 (2005)
[338] Ghodoossi, L.: Thermal and hydrodynamic analysis of a fractal microchannel network, Energy conversion and management 46, No. 5, 771-788 (2005)
[339] Han, D. H.; Lee, K. J.: Single-phase heat transfer and flow characteristics of micro-fin tubes, Applied thermal engineering 25, No. 11 – 12, 1657-1669 (2005)
[340] He, S.: A computational study of convection heat transfer to CO2 at supercritical pressures in a vertical mini tube, International journal of thermal sciences 44, No. 6, 521-530 (2005)
[341] Hetsroni, G.: Heat transfer in micro-channels: comparison of experiments with theory and numerical results, International journal of heat and mass transfer 48, No. 25 – 26, 5580-5601 (2005)
[342] Huai, X. L.; Koyama, S.; Zhao, T. S.: An experimental study of flow and heat transfer of supercritical carbon dioxide in multi-port mini channels under cooling conditions, Chemical engineering science 60, No. 12, 3337-3345 (2005)
[343] Hwang, Y. W.; Kim, M. S.; Kim, Y.: Evaporation heat transfer and pressure drop in micro-fin tubes before and after tube expansion, Journal of enhanced heat transfer 12, No. 1, 59-72 (2005)
[344] Kawahara, A.: Effects of channel diameter and liquid properties on void fraction in adiabatic two-phase flow through microchannels, Heat transfer engineering 26, No. 3, 13-19 (2005)
[345] Kockmann, N.: Fluid dynamics and transfer processes in bended microchannels, Heat transfer engineering 26, No. 3, 71-78 (2005)
[346] Koo, J.; Kleinstreuer, C.: Analysis of surface roughness effects on heat transfer in micro-conduits, International journal of heat and mass transfer 48, No. 13, 2625-2634 (2005) · Zbl 1189.76603
[347] Koo, J. M.: Integrated microchannel cooling for three-dimensional electronic circuit architectures, Journal of heat transfer 127, No. 1, 49-58 (2005)
[348] Lee, P. S.; Garimella, S. V.; Liu, D.: Investigation of heat transfer in rectangular microchannels, International journal of heat and mass transfer 48, No. 9, 1688-1704 (2005)
[349] Li, L.: Heat transfer augmentation in 3D internally finned and microfinned helical tube, International journal of heat and mass transfer 48, No. 10, 1916-1925 (2005)
[350] Liu, C. W.: Design consideration and fabrication of a microchannel system containing a set of heaters and an array of temperature sensors, sensors and actuators, A: physical 122, No. 2, 177-183 (2005)
[351] Liu, D.; Garimella, S. V.: Analysis and optimization of the thermal performance of microchannel heat sinks, International journal of numerical methods for heat and fluid flow 15, No. 1, 7-26 (2005) · Zbl 1162.76391
[352] Markvoort, A. J.; Hilbers, P. A. J.; Nedea, S. V.: Molecular dynamics study of the influence of wall-gas interactions on heat flow in nanochannels, Physical review E - statistical, nonlinear, and soft matter physics 71, No. 6, 9 (2005)
[353] Morini, G. L.: Viscous heating in liquid flows in micro-channels, International journal of heat and mass transfer 48, No. 17, 3637-3647 (2005) · Zbl 1189.76127
[354] Muzychka, Y. S.: Constructal design of forced convection cooled microchannel heat sinks and heat exchangers, International journal of heat and mass transfer 48, No. 15, 3119-3127 (2005) · Zbl 1189.76500
[355] Raju, R.; Roy, S.: Hydrodynamic study of high-speed flow and heat transfer through a microchannel, Journal of thermophysics and heat transfer 19, No. 1, 106-113 (2005)
[356] Reynaud, S.: Hydrodynamics and heat transfer in two-dimensional minichannels, International journal of heat and mass transfer 48, No. 15, 3197-3211 (2005)
[357] Tzeng, P. Y.; Chen, P. H.; Liu, M. H.: Numerical investigation of gaseous microchannel flow in transition regimes, Journal of flow visualization and image processing 12, No. 1, 73-94 (2005)
[358] Vafai, K.; Khaled, A. R. A.: Analysis of flexible microchannel heat sink systems, International journal of heat and mass transfer 48, No. 9, 1739-1746 (2005) · Zbl 1189.76131
[359] Xu, J.; Zhou, J.; Gan, Y.: Static and dynamic flow instability of a parallel microchannel heat sink at high heat fluxes, Energy conversion and management 46, No. 2, 313-334 (2005)
[360] Xu, J. L.: Microscale heat transfer enhancement using thermal boundary layer redeveloping concept, International journal of heat and mass transfer 48, No. 9, 1662-1674 (2005)
[361] Young, W. B.: Simulation of the filling process in molding components with micro channels, Microsystem technologies 11, No. 6, 410-415 (2005)
[362] Chagras, V.; Oesterlé, B.; Boulet, P.: On heat transfer in gas-solid pipe flows: effects of collision induced alterations of the flow dynamics, International journal of heat and mass transfer 48, No. 9, 649-1661 (2005) · Zbl 1189.76670
[363] Dhotre, M. T.; Vitankar, V. S.; Joshi, J. B.: CFD simulation of steady state heat transfer in bubble columns, Chemical engineering journal 108, No. 1 – 2, 117-125 (2005)
[364] El Becaye Maiga, S.: Heat transfer enhancement by using nanofluids in forced convection flows, International journal of heat and fluid flow 26 (4 SPEC. ISS.), 530-546 (2005)
[365] Ghajar, A. J.: Non-boiling heat transfer in gas – liquid flow in pipes - a tutorial, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 1, 46-73 (2005)
[366] Goto, M.; Matsukura, N.; Hagiwara, Y.: Heat transfer characteristics of warm water flow with cool immiscible droplets in a vertical pipe, Experimental thermal and fluid science 29, No. 3, 371-381 (2005)
[367] Hamed, M. H.: Choked gas – solids two-phase flow in pipes, Journal of engineering and applied science 52, No. 5, 961-980 (2005)
[368] Hashemabadi, S. H.; Etemad, S. G.; Thibault, J.: Analytical solution of viscoelastic fluid flow and heat transfer through an annulus, Heat transfer engineering 26, No. 2, 45-49 (2005)
[369] Heris, S. Z.; Esfahany, M. N.; Etemad, S. G.: Nanofluid laminar convection heat transfer, In VDI berichte, 177-180 (2005)
[370] Khaled, A. R. A.; Vafai, K.: Heat transfer enhancement through control of thermal dispersion effects, International journal of heat and mass transfer 48, No. 11, 2172-2185 (2005) · Zbl 1189.76169
[371] Lin, J. F.; Ho, C. J.: Thermally developing forced convection for PCM suspensions in a circular duct, journal of the chinese society of mechanical engineers, Transactions of the chinese institute of engineers, series C/chung-kuo chi hsueh Kung ch’eng hsuebo pao 26, No. 1 – 2, 45-53 (2005)
[372] Liu, Z. H.; Yi, J.; Ma, Z. F.: Theoretical simulation of highly effective cooling with an evaporating annular flow in a vertical tube, Chemical engineering communications 192, No. 10 – 12, 1371-1385 (2005)
[373] Luna, N.; Méndez, F.; Bautista, O.: Numerical analysis of the transient conjugated heat transfer in a circular duct with a power-law fluid, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 659-666 (2005)
[374] Marquis, F. D. S.; Chibante, L. P. F.: Improving the heat transfer of nanofluids and nanolubricants with carbon nanotubes, Jom 57, No. 12, 32-43 (2005)
[375] Roy, G.; Palm, S. J.; Nguyen, C. T.: Heat transfer and fluid flow of nanofluids in laminar radial flow cooling systems, Journal of thermal science 14, No. 4, 362-367 (2005)
[376] Sayed-Ahmed, M. E.; Attia, H. A.: The effect of Hall current on magnetohydrodynamic flow and heat transfer for Bingham fluids in a rectangular duct, Canadian journal of physics 83, No. 6, 637-651 (2005)
[377] Sayed-Ahmed, M. E.; El-Yazal, A. S.: Laminar fully developed flow and heat transfer of Robertson-stiff fluids in a rectangular duct, Canadian journal of physics 83, No. 2, 165-182 (2005)
[378] Stamatiou, E.; Kawaji, M.: Thermal and flow behavior of ice slurries in a vertical rectangular channel. Part I: Local distribution measurements in adiabatic flow, International journal of heat and mass transfer 48, No. 17, 3527-3543 (2005)
[379] Stamatiou, E.; Kawaji, M.: Thermal and flow behavior of ice slurries in a vertical rectangular channel-part II. Forced convective melting heat transfer, International journal of heat and mass transfer 48, No. 17, 3544-3559 (2005)
[380] Umavathi, J. C.: Flow and heat transfer of a couple-stress fluid sandwiched between viscous fluid layers, Canadian journal of physics 83, No. 7, 705-720 (2005)
[381] Wang, Z.; Zhou, T.: Research on heat transfer of two-phase dispersed flow in narrow annular channel, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 9, 792-798 (2005)
[382] Wen, D.; Ding, Y.: Effect of particle migration on heat transfer in suspensions of nanoparticles flowing through minichannels, Microfluidics and nanofluidics 1, No. 2, 183-189 (2005)
[383] Xing, K. Q.; Tao, Y. X.; Hao, Y. L.: Performance evaluation of liquid flow with PCM particles in microchannels, Journal of heat transfer 127, No. 8, 931-940 (2005)
[384] Yi, J.; Liu, Z. H.; Ma, Z. F.: Evaporative heat transfer of annular two-phase flow of air – water in a small vertical tube, Chemical engineering communications 192, No. 1 – 3, 351-369 (2005)
[385] Yu, B.; Kawaguchi, Y.: DNS of fully developed turbulent heat transfer of a viscoelastic drag-reducing flow, International journal of heat and mass transfer 48, No. 21 – 22, 4569-4578 (2005) · Zbl 1189.76325
[386] Yapici, H.; Basturk, G.; Albayrak, B.: Numerical study on conjugate heat transfer in laminar fully developed flow with temperature dependent thermal properties through an externally heated sic/sic composite pipe and thermally induced stress, Energy conversion and management 46, No. 4, 633-654 (2005)
[387] Da Silva, A. K.; Lorente, S.; Bejan, A.: Constructal multi-scale structures with asymmetric heat sources of finite thickness, International journal of heat and mass transfer 48, No. 13, 2662-2672 (2005) · Zbl 1189.76175
[388] Dogruoz, M. B.; Urdaneta, M.; Ortega, A.: Experiments and modeling of the hydraulic resistance and heat transfer of in-line square pin fin heat sinks with top by-pass flow, International journal of heat and mass transfer 48, No. 23 – 24, 5058-5071 (2005)
[389] El-Shaboury, A. M. F.; Ormiston, S. J.: Analysis of laminar forced convection of air crossflow in in-line tube banks with nonsquare arrangements, Numerical heat transfer; part A: applications 48, No. 2, 99-126 (2005)
[390] Gawad, A. F. A.; Nassief, M. M.; Guirguis, N. M.: Numerical and neural study of flow and heat transfer across an array of integrated circuit components, Journal of engineering and applied science 52, No. 5, 981-1000 (2005)
[391] Godard, G.: Heat transfer from a line source located in the periodic laminar near wake of a circular cylinder, Experimental thermal and fluid science 29, No. 8, 947-956 (2005)
[392] Hashizume, K.; Sueoka, Y.: Effect of fins on forced convection heat transfer around a tube in an aligned-arranged tube bundle, Heat transfer - asian research 34, No. 8, 555-563 (2005)
[393] Isaev, S. A.: Comparative analysis of the vortex heat exchange in turbulent flows around a spherical hole and a two-dimensional trench on a plane wall, Journal of engineering physics and thermophysics 78, No. 4, 749-761 (2005)
[394] Isaev, S. A.: Enhancement of vortex heat transfer in a bundle of transverse tubes with ordered trenches, Journal of engineering physics and thermophysics 78, No. 1, 115-126 (2005)
[395] Isaev, S. A.; Leontiev, A. I.; Kudryavtsev, N. A.: Numerical simulation of hydrodynamics and heat transfer under conditions of turbulent transverse flow past a ”trench” on a plane surface, High temperature 43, No. 1, 89-102 (2005)
[396] Isaev, S. A.: Numerical simulation of unsteady-state heat transfer under conditions of laminar transverse flow past a circular cylinder, High temperature 43, No. 5, 746-759 (2005)
[397] Kappler, M.: Experiments on the flow past long circular cylinders in a shear flow, Experiments in fluids 38, No. 3, 269-284 (2005)
[398] Kawaguchi, K.; Okui, K.; Kashi, T.: Heat transfer and pressure drop characteristics of finned tube banks in forced convection (comparison of heat transfer and pressure drop characteristics of serrated and spiral fins), Journal of enhanced heat transfer 12, No. 1, 1-20 (2005)
[399] Kendoush, A. A.; Izzat, A. W.: Experiments of fluid flow and heat convection in the wake of a disk facing a uniform stream, International journal of thermal sciences 44, No. 9, 894-902 (2005)
[400] Kim, T.; Hodson, H. P.; Lu, T. J.: Contribution of vortex structures and flow separation to local and overall pressure and heat transfer characteristics in an ultralightweight lattice material, International journal of heat and mass transfer 48, No. 19 – 20, 4243-4264 (2005)
[401] Kitamura, K.; Yamamoto, M.; Kimura, F.: Fluid flow and heat transfer of opposing mixed convection adjacent to vertical heated plates, Heat transfer - asian research 34, No. 8, 595-607 (2005)
[402] Kwak, K. M.; Torii, K.; Nishino, K.: Simultaneous heat transfer enhancement and pressure loss reduction for finned-tube bundles with the first or two transverse rows of built-in winglets, Experimental thermal and fluid science 29, No. 5, 625-632 (2005)
[403] Lee, B. S.; Kim, T. Y.; Lee, D. H.: Control of vortex shedding behind a rectangular cylinder near the ground, Numerical heat transfer; part A: applications 47, No. 8, 787-804 (2005)
[404] Lu, G. D.: Heat transfer characteristics of air cross-flow for in-line arrangement of spirally corrugated tube and smooth tube bundles, Journal of zhejiang university: science 6A, No. 7, 670-675 (2005)
[405] Nakajiina, M.: Numerical simulation of three-dimensional separated flow and heat transfer around staggered surface-mounted rectangular blocks in a channel, Numerical heat transfer; part A: applications 47, No. 7, 691-708 (2005)
[406] Oyakawa, K.: Heat transfer enhancement in duct with blunt body inserted close to its wall, Heat transfer - asian research 34, No. 5, 336-349 (2005)
[407] Rahnama, M.; Hadi-Moghaddam, H.: Numerical investigation of convective heat transfer in unsteady laminar flow over a square cylinder in a channel, Heat transfer engineering 26, No. 10, 21-29 (2005)
[408] Ricci, R.; Montelpare, S.: A quantitative IR thermographic method to study the laminar separation bubble phenomenon, International journal of thermal sciences 44, No. 8, 709-719 (2005)
[409] Santos, W. F. N.: Leading-edge bluntness effects on aerodynamic heating and drag of power law body in low-density hypersonic flow, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 3, 236-242 (2005)
[410] Santos, W. F. N.: Flat-faced leading-edge effects in low-density hypersonic wedge flow, Journal of spacecraft and rockets 42, No. 1, 22-24 (2005)
[411] Savino, R.; Paterna, D.: Blunted cone-flare in hypersonic flow, Computers and fluids 34, No. 7, 859-875 (2005) · Zbl 1134.76373
[412] Sharma, A.; Eswaran, V.: Effect of channel confinement on the two-dimensional laminar flow and heat transfer across a square cylinder, Numerical heat transfer; part A: applications 47, No. 1, 79-107 (2005) · Zbl 1188.76198
[413] Wang, T.; Rice, M. C.: Effect of elevated free-stream turbulence on transitional flow heat transfer over dual-scaled rough surfaces, Journal of heat transfer 127, No. 4, 393-403 (2005)
[414] Wang, Z. J.; Zhou, Y.: Vortex interactions in a two side-by-side cylinder near-wake, International journal of heat and fluid flow 26, No. 3, 362-377 (2005)
[415] Watanabe, K.; Takahashi, T.: LES and measurement of heat transfer and flow in rectangular channels with crossed angled ribs, nihon kikai gakkai ronbunshu, B hen/transactions of the Japan society of mechanical engineers, part B 71, No. 705, 1459-1464 (2005)
[416] Wen, M. Y.: Forced convection heat transfer and friction characteristics in multi-exit -rectangular package with inclined tube bundles, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 10, 921-930 (2005)
[417] Wen, M. Y.; Ho, C. Y.: Evaporation heat transfer and pressure drop characteristics of R-290 (propane), R-600 (butane), and a mixture of R-290/R-600 in the three-lines serpentine small-tube bank, Applied thermal engineering 25, No. 17 – 18, 2921-2936 (2005)
[418] Wiberg, R.; Lior, N.: Heat transfer from a cylinder in axial turbulent flows, International journal of heat and mass transfer 48, No. 8, 1505-1517 (2005)
[419] Xu, G.; Zhou, Y.: Momentum and heat transfer in a turbulent cylinder wake behind a streamwise oscillating cylinder, International journal of heat and mass transfer 48, No. 19 – 20, 4062-4072 (2005)
[420] Younis, B. A.; Banica, M. C.; Weigand, B.: Prediction of vortex shedding with heat transfer, Numerical heat transfer; part A: applications 48, No. 1, 1-19 (2005)
[421] Shi, X.; Khodadadi, J. M.: Periodic state of fluid flow and heat transfer in a lid-driven cavity due to an oscillating thin fin, International journal of heat and mass transfer 48, No. 25 – 26, 5323-5337 (2005) · Zbl 1188.76199
[422] Na, Y.: Direct numerical simulation of turbulent scalar field in a channel with wall injection, Numerical heat transfer; part A: applications 47, No. 2, 165-181 (2005)
[423] Aktas, M. K.; Farouk, B.; Lin, Y.: Heat transfer enhancement by acoustic streaming in an enclosure, Journal of heat transfer 127, No. 12, 1313-1321 (2005)
[424] Abu-Hijleh, B. A.: Fin placement for optimal forced convection heat transfer from a cylinder in cross-flow, International journal of numerical methods for heat and fluid flow 15, No. 3, 277-295 (2005)
[425] Bahaidarah, H. M. S.; Anand, N. K.; Chen, H. C.: A numerical study of fluid flow and heat transfer over a bank of flat tubes, Numerical heat transfer; part A: applications 48, No. 4, 359-385 (2005)
[426] Saldana, J. G. Barbosa; Anand, N. K.; Sarin, V.: Numerical simulation of mixed convective flow over a three-dimensional horizontal backward facing step, Journal of heat transfer 127, No. 9, 1027-1036 (2005) · Zbl 1429.76097
[427] Bhattacharyya, S.; Mahapatra, S.: Vortex shedding around a heated square cylinder under the influence of buoyancy, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 9, 824-833 (2005)
[428] Cheng, Y. J.; Hwang, J. W.; Cherng, D. L.: Heat transfer on a stationary test cylinder with wake generators, Journal of propulsion and power 21, No. 5, 954-955 (2005)
[429] Sugawara, K.; Yoshikawa, H.; Ota, T.; Flow, Les Of Turbulent Separated; Channel, Heat Transfer In A. Symmetric Expansion Plane: Journal of fluids engineering, Transactions of the ASME 127, No. 5, 865-871 (2005)
[430] Tsay, Y. L.; Chang, T. S.; Cheng, J. C.: Heat transfer enhancement of backward-facing step flow in a channel by using baffle installation on the channel wall, Acta mechanica 174, No. 1 – 2, 63-76 (2005) · Zbl 1078.76027
[431] Tsay, Y. L.; Cheng, J. C.; Chang, T. S.: Influences of a baffle on mixed convection characteristics of backward-facing step flow in vertical channels, Zhongguo hangkong taikong xuehui huikan/transactions of the aeronautical and astronautical society of the republic of China 37, No. 1, 67-76 (2005)
[432] Alimi, S. E.; Orfi, J.; Nasrallah, S. B.: Buoyancy effects on mixed convection heat and mass transfer in a duct with sudden expansions, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 6, 559-567 (2005)
[433] Chen, Z. Q.; Shi, M. H.: Study of heat and moisture migration properties in porous building materials, Applied thermal engineering 25, No. 1, 61-71 (2005)
[434] Dal Pont, S.; Schrefler, B. A.; Ehrlacher, A.: Experimental and finite element analysis of a hollow cylinder submitted to high temperatures, Materials and structures/materiaux et constructions 38, No. 281, 681-690 (2005)
[435] Erriguible, A.: Modeling of heat and mass transfer at the boundary between a porous medium and its surroundings, Drying technology 23, No. 3, 455-472 (2005)
[436] Etemoglu, A. B.: Theoretical study of combined heat and mass transfer process during paper drying, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 419-427 (2005)
[437] Fan, J.; Cheng, X. Y.: Heat and moisture transfer with sorption and phase change through clothing assemblies: part II: Theoretical modeling, simulation, and comparison with experimental results, Textile research journal 75, No. 3, 187-196 (2005)
[438] Fan, J.; Cheng, X. Y.: Heat and moisture transfer with sorption and phase change through clothing assemblies: part I: Experimental investigation, Textile research journal 75, No. 2, 99-105 (2005)
[439] Haghi, A. K.: A study of heat and mass transfer in porous material under equilibrium conditions, Theoretical foundations of chemical engineering 39, No. 2, 200-203 (2005)
[440] Huang, X. M.; Liu, W.: A mathematical model to analyze heat and mass transfer characteristics of a CPL evaporator porous Wick, Heat transfer - asian research 34, No. 4, 209-218 (2005)
[441] Huang, X. M.: Modeling for heat and mass transfer with phase change in porous Wick of CPL evaporator, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 667-673 (2005)
[442] Liu, B. C.; Liu, W.; Peng, S. W.: Study of heat and moisture transfer in soil with a dry surface layer, International journal of heat and mass transfer 48, No. 21 – 22, 4579-4589 (2005) · Zbl 1189.76605
[443] Lu, T.; Jiang, P.; Shen, S.: Numerical and experimental investigation of convective drying in unsaturated porous media with bound water, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1103-1111 (2005)
[444] Mendes, N.; Philippi, P. C.: A method for predicting heat and moisture transfer through multilayered walls based on temperature and moisture content gradients, International journal of heat and mass transfer 48, No. 1, 37-51 (2005) · Zbl 1099.76535
[445] Meng, Q.; Hu, W.: Roof cooling effect with humid porous medium, Energy and buildings 37, No. 1, 1-9 (2005)
[446] Osipov, S. N.; Korobko, E. V.; Bilyk, V. A.: Influence of moisture evaporation from a heated surface on the thermal regime of a capillary-porous body in the initial period of drying, Journal of engineering physics and thermophysics 78, No. 2, 285-292 (2005)
[447] Pangarkar, B. L.; Parjane, S. B.: Heat transfer: in vibro fluidized bed dryer, Chemical engineering world 40, No. 2, 56-57 (2005)
[448] Post, S.; Urukova, I.; Tsotsas, E.: Interfacial convection during evaporation of binary mixtures from porous obstacles, Aiche journal 51, No. 12, 3257-3274 (2005)
[449] Qin, M.; Belarbi, R.: Development of an analytical method for simultaneous heat and moisture transfer in building materials utilizing transfer function method, Journal of materials in civil engineering 17, No. 5, 492-497 (2005)
[450] Reis, A. H.; Rosa, R.: Role of sorption isotherms in the analysis of coupled heat and mass fluxes in porous media, Journal of porous media 8, No. 3, 259-269 (2005)
[451] Tandon, P.; Balakrishnan, J.: Predicting heat and mass transfer to a growing, rotating preform during soot deposition in the outside vapor deposition process, Chemical engineering science 60, No. 18, 5118-5128 (2005)
[452] Tao, Z.: Numerical simulation of conjugate heat and mass transfer process within cylindrical porous media with cylindrical dielectric cores in microwave freeze-drying, International journal of heat and mass transfer 48, No. 3 – 4, 561-572 (2005) · Zbl 1121.76415
[453] Tatemoto, Y.: Drying characteristics of porous materials in a fluidized bed of hygroscopic porous particles, Journal of chemical engineering of Japan 38, No. 12, 976-982 (2005)
[454] Xu, Q.; Luo, X.: Heat and mass transfer of 2d models of fibrous porous media, Journal of computational information systems 1, No. 1, 27-30 (2005)
[455] Xue, X.: Dynamic modeling of single tubular SOFC combining heat/mass transfer and electrochemical reaction effects, Journal of power sources 142, No. 1 – 2, 211-222 (2005)
[456] Yang, Y. C.; Lee, H. L.; Chang, W. J.: An inverse problem in simultaneously estimating boundary moisture fluxes in a porous annular cylinder, Acta mechanica 179, No. 3 – 4, 131-144 (2005) · Zbl 1079.76073
[457] Burkina, R. S.; Medium, Hot-Spot Ignition Of A. Reactive Gas In An Inert Porous: Combustion, Explosion and shock waves 41, No. 5, 521-527 (2005)
[458] Contarin, F.: Energy extraction from a porous media reciprocal flow burner with embedded heat exchangers, Journal of heat transfer 127, No. 2, 123-130 (2005)
[459] Kakutkina, N. A.: Some stability aspects of gas combustion in porous media, combustion, Explosion and shock waves 41, No. 4, 395-404 (2005)
[460] Kalinchak, V. V.; Zui, O. N.; Orlovskaya, S. G.: The effect of the temperature and diameter of porous carbon particles on the kinetics of chemical reactions and heat and mass transfer with air, High temperature 43, No. 5, 781-790 (2005)
[461] Kirillov, V. A.: Radial reactor-heat exchanger for natural gas combustion in a structured porous metal catalyst bed, Theoretical foundations of chemical engineering 39, No. 4, 407-414 (2005)
[462] Chen, J. C.; Grace, J. R.; Golriz, M. R.: Heat transfer in fluidized beds: design methods, Powder technology 150 (2 SPEC. ISS.), 123-132 (2005)
[463] Gao, W. M.; Kong, L. X.; Hodgson, P. D.: Experimental investigation and numerical simulation of heat transfer in quenching fluidised beds, International journal of materials and product technology 24, No. 1 – 4, 319-338 (2005)
[464] Hashizume, K.; Shirai, A.: Heat transfer on tube bundles embedded horizontally in a liquid-fluidized bed, Heat transfer - asian research 34, No. 2, 85-98 (2005)
[465] Heinrich, S.: Fluidized bed spray granulation: analysis of heat and mass transfers and dynamic particle populations, Brazilian journal of chemical engineering 22, No. 2, 181-194 (2005)
[466] Kalisz, S.; Pronobis, M.: Influence of non-uniform flow distribution on overall heat transfer in convective bundle of circulating fluidized bed boiler, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 981-990 (2005)
[467] Koksal, M.; Golriz, M. R.; Hamdullahpur, F.: Thermal aspects of a circulating fluidized bed with air staging, International journal of energy research 29, No. 10, 923-935 (2005)
[468] Rasouli, S.; Golriz, M. R.; Hamidi, A. A.: Effect of annular fins on heat transfer of a horizontal immersed tube in bubbling fluidized beds, Powder technology 154, No. 1, 9-13 (2005)
[469] Rokhman, B. B.: A two-zone model for aerodynamics, heat-and-mass transfer processes, and combustion in the freeboard space of the furnace of a circulating fluidized-bed boiler, Thermal engineering (English translation of teploenergetika) 52, No. 9, 698-705 (2005)
[470] Ross, D. P.: A non-isothermal model of a bubbling fluidised-bed coal gasifier, Fuel 84, No. 12 – 13, 1469-1481 (2005)
[471] Schmidt, A.; Renz, U.: Numerical prediction of heat transfer between a bubbling fluidized bed and an immersed tube bundle, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 3, 257-270 (2005)
[472] Shin, K. S.: Heat-transfer coefficient in viscous liquid – solid circulating fluidized beds, Aiche journal 51, No. 2, 671-677 (2005)
[473] Vijay, G. N.; Reddy, B. V.: Effect of dilute and dense phase operating conditions on bed-to-wall heat transfer mechanism in a circulating fluidized bed combustor, International journal of heat and mass transfer 48, No. 16, 3276-3283 (2005) · Zbl 1189.76765
[474] Wang, L.; Wu, P.; Ni, X.: Surface-particle-emulsion model of heat transfer between a fluidized bed and an immersed surface, Powder technology 149, No. 2 – 3, 127-138 (2005)
[475] Yusuf, R.; Melaaen, M. C.; Mathiesen, V.: Convective heat and mass transfer modeling in gas-fluidized beds, Chemical engineering and technology 28, No. 1, 13-24 (2005)
[476] Dukhan, N.: One-dimensional heat transfer analysis in open-cell 10-ppi metal foam, International journal of heat and mass transfer 48, No. 25 – 26, 5112-5120 (2005) · Zbl 1188.76255
[477] Fuller, A. J.: Measurement and interpretation of the heat transfer coefficients of metal foams, Proceedings of the institution of mechanical engineers, part C: Journal of mechanical engineering science 219, No. 2, 183-191 (2005)
[478] Giani, L.; Groppi, G.; Tronconi, E.: Heat transfer characterization of metallic foams, Industrial and engineering chemistry research 44, No. 24, 9078-9085 (2005)
[479] Jeng, T. M.; Liu, L. K.; Hung, Y. H.: A novel semi-empirical model for evaluating thermal performance of porous metallic foam heat sinks, journal of electronic packaging, Transactions of the ASME 127, No. 3, 223-234 (2005)
[480] Leong, K. C.; Jin, L. W.: An experimental study of heat transfer in oscillating flow through a channel filled with an aluminum foam, International journal of heat and mass transfer 48, No. 2, 243-253 (2005)
[481] Togashi, H.; Yuki, K.; Hashizume, H.: Heat transfer enhancement technique with copper fiber porous media, Fusion science and technology 47, No. 3, 740-745 (2005)
[482] Wu, W. T.: Measurement and correlation of hydraulic resistance of flow through woven metal screens, International journal of heat and mass transfer 48, No. 14, 3008-3017 (2005)
[483] Yuki, K.: Super-high heat flux removal using sintered metal porous media, Journal of thermal science 14, No. 3, 272-280 (2005)
[484] Abo-Eldahab, E. M.; El Aziz, M. A.: Flow and heat transfer in a micropolar fluid past a stretching surface embedded in a non-darcian porous medium with uniform free stream, Applied mathematics and computation 162, No. 2, 881-899 (2005) · Zbl 1290.76144
[485] Abo-Eldahab, E. M.; Ghonaim, A. F.: Radiation effect on heat transfer of a micropolar fluid through a porous medium, Applied mathematics and computation 169, No. 1, 500-510 (2005) · Zbl 1329.80007
[486] Attia, H. A.: Unsteady Couette flow with heat transfer considering ion-slip, Turkish journal of physics 29, No. 6, 379-388 (2005)
[487] Attia, H. A.: Numerical study of flow and heat transfer of a non-Newtonian fluid on a rotating porous disk, Applied mathematics and computation 163, No. 1, 327-342 (2005) · Zbl 1116.76008
[488] Bansod, V. J.: The effects of blowing and suction on double diffusion by mixed convection over inclined permeable surface, Transport in porous media 60, No. 3, 301-317 (2005)
[489] Bortolozzi, R. A.; Deiber, J. A.: Effects of thermal spot configurations on the flow through porous media driven by natural and forced convection, International journal of heat and mass transfer 48, No. 16, 3294-3307 (2005) · Zbl 1189.76587
[490] Cantarel, A.: Metal matrix composite processing: numerical study of heat transfer between fibers and metal, International journal of numerical methods for heat and fluid flow 15, No. 8, 808-826 (2005)
[491] Cheng, L.; Kuznetsov, A. V.: Heat transfer in a laminar flow in a helical pipe filled with a fluid saturated porous medium, International journal of thermal sciences 44, No. 8, 787-798 (2005) · Zbl 1060.76114
[492] Hassanien, I. A.; Omer, G. M.: Mixed-convection flow adjacent to a horizontal surface in a porous medium with variable permeability and surface heat flux, Journal of porous media 8, No. 2, 225-235 (2005)
[493] Li, L.; Kimura, S.: Numerical simulation on mixed convection in a porous medium heated by a vertical cylinder, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 491-494 (2005)
[494] Li, L.; Kimura, S.: Mixed convection around a heated vertical cylinder embedded in porous medium, Progress in natural science 15, No. 7, 661-664 (2005)
[495] Magyari, E.; Pop, I.; Keller, B.: Exact solutions for a longitudinal steady mixed convection flow over a permeable vertical thin cylinder in a porous medium, International journal of heat and mass transfer 48, No. 16, 3435-3442 (2005) · Zbl 1189.76495
[496] Saeid, N. H.; Pop, I.: Mixed convection from two thermal sources in a vertical porous layer, International journal of heat and mass transfer 48, No. 19 – 20, 4150-4160 (2005) · Zbl 1188.76249
[497] Sharma, P. K.: Simultaneous thermal and mass diffusion on three-dimensional mixed convection flow through a porous medium, Journal of porous media 8, No. 4, 409-417 (2005)
[498] Tan, W.; Masuoka, T.: Stokes first problem for a second grade fluid in a porous half-space with heated boundary, International journal of non-linear mechanics 40, No. 4, 515-522 (2005) · Zbl 1349.76830
[499] Tzeng, S. C.: Mixed convective heat-transfers in a porous channel with sintered copper beads, Applied energy 81, No. 1, 19-31 (2005)
[500] Tzeng, S. C.; Wang, Y. C.; Jwo, W. J.: Study of mixed convective heat transfer in a sintered porous channel, Heat transfer - asian research 34, No. 2, 64-77 (2005)
[501] Cortell, R.: Flow and heat transfer of a fluid through a porous medium over a stretching surface with internal heat generation/absorption and suction/blowing, Fluid dynamics research 37, No. 4, 231-245 (2005) · Zbl 1153.76423
[502] Eldabe, N. T. M.; Sallam, S. N.: Non-Darcy Couette flow through a porous medium of magnetohydrodynamic visco-elastic fluid with heat and mass transfer, Canadian journal of physics 83, No. 12, 1241-1263 (2005)
[503] Foo, J. J.; Shih, W. H.; Hsieh, W. H.: Analytical study of two-dimensional forced convective heat transfer of porous media under local-thermal-equilibrium conditions, Journal of the chinese society of mechanical engineers, transactions of the chinese institute of engineers, series C/chung-kuo chi hsueh Kung ch’eng hsuebo pao 26, No. 1 – 2, 107-113 (2005)
[504] Guo, Z.; Zhao, T. S.: A lattice Boltzmann model for convection heat transfer in porous media, Numerical heat transfer, part B: fundamentals 47, No. 2, 157-177 (2005)
[505] Hadim, H.; North, M.: Forced convection in a sintered porous channel with inlet and outlet slots, International journal of thermal sciences 44, No. 1, 33-42 (2005)
[506] Haji-Sheikh, A.; Sparrow, E. M.; Minkowycz, W. J.: Heat transfer to flow through porous passages using extended weighted residuals method - a Green’s function solution, International journal of heat and mass transfer 48, No. 7, 1330-1349 (2005) · Zbl 1189.76595
[507] Hooman, K.: Fully developed temperature distribution in a porous saturated duct of elliptical cross section with viscous dissipation effects and entropy generation analysis, Heat transfer research 36, No. 3, 237-245 (2005)
[508] Hooman, K.; Gorji-Bandpy, M.: Laminar dissipative flow in a porous channel bounded by isothermal parallel plates, Applied mathematics and mechanics (English edition) 26, No. 5, 587-593 (2005) · Zbl 1144.76330
[509] Horvat, A.; Mavko, B.: Calculation of conjugate heat transfer problem with volumetric heat generation using the Galerkin method, Applied mathematical modelling 29, No. 5, 477-495 (2005) · Zbl 1129.80004
[510] Hossain, M.; Acar, M.; Malalasekera, W.; Airflow, A. Mathematical Model For; Webs, Heat Transfer Through Fibrous: Proceedings of the institution of mechanical engineers, Part E: journal of process mechanical engineering 219, No. 4, 357-366 (2005)
[511] Hribersek, M.: Numerical computation of turbulent conjugate heat transfer in air heater, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 470-475 (2005)
[512] Huang, P. C.; Nian, S. H.; Yang, C. F.: Enhanced heat-source cooling by flow pulsation and porous block, Journal of thermophysics and heat transfer 19, No. 4, 460-470 (2005)
[513] Huang, P. C.: Enhancement of forced-convection cooling of multiple heated blocks in a channel using porous covers, International journal of heat and mass transfer 48, No. 3 – 4, 647-664 (2005) · Zbl 1121.76389
[514] Jen, T. C.; Yan, T. Z.: Developing fluid flow and heat transfer in a channel partially filled with porous medium, International journal of heat and mass transfer 48, No. 19 – 20, 3995-4009 (2005) · Zbl 1188.76257
[515] Jeng, T. M.; Tzeng, S. C.: Numerical study of confined slot jet impinging on porous metallic foam heat sink, International journal of heat and mass transfer 48, No. 23 – 24, 4685-4694 (2005) · Zbl 1189.76598
[516] Khashan, S. A.; Al-Amiri, A. M.; Al-Nimr, M. A.: Assessment of the local thermal non-equilibrium condition in developing forced convection flows through fluid-saturated porous tubes, Applied thermal engineering 25, No. 10, 1429-1445 (2005)
[517] Kurtcebe, C.; Erim, M. Z.: Heat transfer of a viscoelastic fluid in a porous channel, International journal of heat and mass transfer 48, No. 23 – 24, 5072-5077 (2005) · Zbl 1189.76056
[518] Liu, I. C.: Flow and heat transfer of an electrically conducting fluid of second grade in a porous medium over a stretching sheet subject to a transverse magnetic field, International journal of non-linear mechanics 40, No. 4, 465-474 (2005) · Zbl 1349.80016
[519] Liu, I. C.: Exact solutions for a fluid-saturated porous medium with heat and mass transfer, Journal of mechanics 21, No. 1, 57-62 (2005)
[520] Luna, N.; Mendez, F.: Forced convection on a heated horizontal flat plate with finite thermal conductivity in a non-darcian porous medium, International journal of thermal sciences 44, No. 7, 656-664 (2005)
[521] Mahmud, S.; Fraser, R. Andrew: Flow, thermal, and entropy generation characteristics inside a porous channel with viscous dissipation, International journal of thermal sciences 44, No. 1, 21-32 (2005)
[522] Mahmud, S.; Fraser, R. A.: Conjugate heat transfer inside a porous channel, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 6, 568-575 (2005)
[523] Maleque, K. A.; Sattar, M. A.: Steady laminar convective flow with variable properties due to a porous rotating disk, Journal of heat transfer 127, No. 12, 1406-1409 (2005) · Zbl 1189.76786
[524] Martins-Costa, M. L.; Da Gama, R. M. Saldanha: A mixture theory model for the forced convection flow through an unsaturated wellbore, International journal of heat and fluid flow 26, No. 1, 141-155 (2005)
[525] Miguel, A. F.; Reis, A. Heitor: Transient forced convection in an isothermal fluid-saturated porous-medium layer: effective permeability and boundary layer thickness, Journal of porous media 8, No. 2, 165-174 (2005)
[526] Min, J. Y.; Kim, S. J.: A novel methodology for thermal analysis of a composite system consisting of a porous medium and an adjacent fluid layer, Journal of heat transfer 127, No. 6, 648-656 (2005)
[527] Morosuk, T. V.: Entropy generation in conduits filled with porous medium totally and partially, International journal of heat and mass transfer 48, No. 12, 2548-2560 (2005) · Zbl 1189.76608
[528] Nield, D. A.; Kuznetsov, A. V.: Thermally developing forced convection in a channel occupied by a porous medium saturated by a non-Newtonian fluid, International journal of heat and mass transfer 48, No. 6, 1214-1218 (2005) · Zbl 1189.76501
[529] Pillai, K. M.; Jadhav, R. S.: A numerical study of nonisothermal reactive flow in a dual-scale porous medium under partial saturation, Numerical heat transfer; part A: applications 47, No. 2, 109-136 (2005)
[530] Rochette, D.; Clain, S.: Local heat transfer of compressible fluid in porous media: application to the HBC fuse, International journal of heat and fluid flow 26, No. 2, 322-333 (2005)
[531] Scott, D. M.: A computational scheme for fluid flow and heat transfer analysis in porous media for recovery of oil and gas, Petroleum science and technology 23, No. 7 – 8, 843-862 (2005)
[532] Shahnazari, M. R.; Hagh, M. Zia Bashar: Theoretical and experimental investigation of the channeling effect in fluid flow through porous media, Journal of porous media 8, No. 2, 115-124 (2005)
[533] Sheikhzadeh, G. A.: Computational modelling of unsaturated flow of liquid in heap leaching - using the results of column tests to calibrate the model, International journal of heat and mass transfer 48, No. 2, 279-292 (2005) · Zbl 1121.76413
[534] Sousa, A. C. M.: Heat transfer distribution for a free/porous system with forced convection and heat generation - a numerical study, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 519-526 (2005)
[535] Takhar, H. S.; Chamkha, A. J.; Gorla, R. S. R.: Combined convection-radiation interaction along a vertical flat plate in a porous medium, International journal of fluid mechanics research 32, No. 2, 139-156 (2005)
[536] Abo-Eldahab, E. M.; El Aziz, M. A.: Hydromagnetic three-dimensional free convective heat transfer over a stretching surface embedded in a non-darcian porous medium in the presence of heat generation or absorption, Canadian journal of physics 83, No. 7, 739-751 (2005)
[537] Al-Harbi, S. M.: Numerical study of natural convection heat transfer with variable viscosity and thermal radiation from a cone and wedge in porous media, Applied mathematics and computation 170, No. 1, 64-75 (2005) · Zbl 1151.76579
[538] Al-Nimr, M. A.; Aldoss, T. K.; Abuzaid, M. M.: Effect of the macroscopic local inertial term on the non-Newtonian free-convection flow in channels filled with porous materials, Journal of porous media 8, No. 4, 421-430 (2005) · Zbl 1042.76573
[539] Bansod, V. J.; Singh, P.; Rathishkumar, B. V.: Laminar natural convection heat and mass transfer from a horizontal surface in non-Darcy porous media, Journal of porous media 8, No. 1, 65-72 (2005) · Zbl 1159.76379
[540] Beg, O. A.; Takhar, H. S.; Singh, A. K.: Multiparameter perturbation analysis of unsteady oscillatory magnetoconvection in porous media with heat source effects, International journal of fluid mechanics research 32, No. 6, 635-661 (2005)
[541] Bourich, M.: Onset of convection and finite amplitude flow due to Sorét effect within a horizontal sparsely packed porous enclosure heated from below, International journal of heat and fluid flow 26, No. 3, 513-525 (2005)
[542] Braga, E. J.; De Lemos, M. J. S.: Heat transfer in enclosures having a fixed amount of solid material simulated with heterogeneous and homogeneous models, International journal of heat and mass transfer 48, No. 23 – 24, 4748-4765 (2005) · Zbl 1189.76517
[543] Cai, R.; Gou, C.; Zhang, N.: Explicit analytical solutions of the anisotropic Brinkman model for the natural convection in porous media (II), science in China, Series G: physics astronomy 48, No. 4, 422-430 (2005)
[544] Chaves, C. A.: Transient natural convection heat transfer by double diffusion from a heated cylinder buried in a saturated porous medium, International journal of thermal sciences 44, No. 8, 720-725 (2005)
[545] Costa, V. A. F.: Thermodynamics of natural convection in enclosures with viscous dissipation, International journal of heat and mass transfer 48, No. 11, 2333-2341 (2005) · Zbl 1189.76523
[546] Das, S.; Morsi, Y. S.: A non-darcian numerical modeling in domed enclosures filled with heat-generating porous media, Numerical heat transfer; part A: applications 48, No. 2, 149-164 (2005)
[547] El-Amin, M. F.; Gorla, R. S. R.: Non-Darcy free convective heat transfer from a plate in a porous medium, International journal of fluid mechanics research 32, No. 1, 21-38 (2005)
[548] Er-Raki, M.: Sorét driven thermosolutal convection in a shallow porous layer with a stress-free upper surface, Engineering computations (Swansea, wales) 22, No. 2, 186-205 (2005) · Zbl 1191.76094
[549] Gobin, D.; Goyeau, B.; Neculae, A.: Convective heat and solute transfer in partially porous cavities, International journal of heat and mass transfer 48, No. 10, 1898-1908 (2005) · Zbl 1189.76533
[550] Guo, Z.; Zhao, T. S.: Lattice Boltzmann simulation of natural convection with emperature-dependent viscosity in a porous cavity, Progress in computational fluid dynamics 5, No. 1 – 2, 110-117 (2005)
[551] Haddad, O. M.; Abuzaid, M. M.; Al-Nimr, M. A.: Developing free-convection gas flow in a vertical open-ended microchannel filled with porous media, Numerical heat transfer; part A: applications 48, No. 7, 693-710 (2005)
[552] Hassanien, I. A.; Ibrahim, F. S.; Orner, G. M.: Effect of variable permeability and viscous dissipation on a non-Darcy natural-convection regime with thermal dispersion, Journal of porous media 8, No. 2, 237-246 (2005)
[553] Holzbecher, E.: Free and forced convection in porous media open at the top, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 606-614 (2005)
[554] Ibrahim, F. S.; Mansour, M. A.; Abdel-Gaied, S. M.: Radiative and thermal dispersion effects on non-Darcy natural convection with lateral mass flux for non-Newtonian fluid from a vertical flat plate in a saturated porous medium, Transport in porous media 61, No. 1, 45-57 (2005)
[555] Jha, B. K.: Free-convection flow through an annular porous medium, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 675-679 (2005)
[556] Kim, K. H.; Hyun, J. M.; Kim, J. W.: Transient buoyant convection in a porous-medium enclosure by sudden imposition of gravity, Journal of porous media 8, No. 3, 311-326 (2005)
[557] Krakov, M. S.; Nikiforov, I. V.: Thermomagnetic convection in a porous enclosure in the presence of outer uniform magnetic field, Journal of magnetism and magnetic materials 289, 278-280 (2005)
[558] Kumar, B. V. R.; Shalini: Double diffusive natural convection in a doubly stratified wavy porous enclosure, Applied mathematics and computation 171, No. 1, 180-202 (2005) · Zbl 1190.76164
[559] Kumari, M.; Jayanthi, S.: Uniform lateral mass flux on natural-convection flow over a vertical cone embedded in a porous medium saturated with a non-Newtonian fluid, Journal of porous media 8, No. 1, 73-84 (2005) · Zbl 1159.76381
[560] Malashetty, M. S.; Shivakumara, I. S.; Kulkarni, S.: The onset of convection in an anisotropic porous layer using a thermal non-equilibrium model, Transport in porous media 60, No. 2, 199-215 (2005) · Zbl 1189.76203
[561] Malashetty, M. S.; Shivakumara, I. S.; Kulkarni, S.: The onset of lapwood-Brinkman convection using a thermal non-equilibrium model, International journal of heat and mass transfer 48, No. 6, 1155-1163 (2005) · Zbl 1189.76203
[562] Malashetty, M. S.; Umavathi, J. C.; Kumar, J. P.: Flow and heat transfer in an inclined channel containing a porous layer sandwiched between two fluid layers, modelling, Measurement and control B 74, No. 5 – 6, 19-35 (2005)
[563] Merrikh, A. A.; Lage, J. L.; Mohamad, A. A.: Natural convection in nonhomogeneous heat-generating media: comparison of continuum and porous-continuum models, Journal of porous media 8, No. 2, 149-163 (2005)
[564] Misirlioglu, A.; Baytas, A. C.; Pop, I.: Free convection in a wavy cavity filled with a porous medium, International journal of heat and mass transfer 48, No. 9, 1840-1850 (2005) · Zbl 1189.76555
[565] Najjari, M.; Nasrallah, S. B.: Numerical study of the effects of geometric dimensions on liquid – vapor phase change and free convection in a rectangular porous cavity, Journal of porous media 8, No. 1, 1-12 (2005) · Zbl 1159.76386
[566] Saeid, N. H.; Mohamad, A. A.: Natural convection in a porous cavity with spatial sidewall temperature variation, International journal of numerical methods for heat and fluid flow 15, No. 6, 555-566 (2005) · Zbl 1231.76294
[567] Saeid, N. H.; Mohamad, A. A.: Periodic free convection from a vertical plate in a saturated porous medium, non-equilibrium model, International journal of heat and mass transfer 48, No. 18, 3855-3863 (2005) · Zbl 1189.76563
[568] Saeid, N. H.; Pop, I.: Natural convection from a discrete heater in a square cavity filled with a porous medium, Journal of porous media 8, No. 1, 55-63 (2005) · Zbl 1159.76382
[569] Saghir, M. Z.; Mahendran, P.; Hennenberg, M.: Marangoni and gravity driven convection in a liquid layer overlying a porous layer: lateral and bottom heating conditions, Energy sources 27, No. 1 – 2, 151-171 (2005)
[570] Singh, A. K.; Takhar, H. S.: Free convection flow of two immiscible viscous liquids through parallel permeable beds: use of Brinkman equation, International journal of fluid mechanics research 32, No. 1, 39-56 (2005)
[571] Sunil, Divya; Sharma, R. C.: Thermosolutal convection in a ferromagnetic fluid saturating a porous medium, Journal of porous media 8, No. 4, 393-408 (2005) · Zbl 1151.76598
[572] Suresh, C. S. Y.: Numerical simulation of three-dimensional natural convection inside a heat generating anisotropic porous medium, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 9, 799-809 (2005)
[573] Vadasz, J. J.; Roy-Aikins, J. E. A.; Vadasz, P.: Sudden or smooth transitions in porous media natural convection, International journal of heat and mass transfer 48, No. 6, 1096-1106 (2005) · Zbl 1189.76612
[574] Zhao, C.: Theoretical and numerical analysis of large-scale heat transfer problems with temperature-dependent pore-fluid densities, Engineering computations (Swansea, wales) 22, No. 2, 232-252 (2005) · Zbl 1191.86030
[575] Guardo, A.: Influence of the turbulence model in CFD modeling of wall-to-fluid heat transfer in packed beds, Chemical engineering science 60, No. 6, 1733-1742 (2005)
[576] Jamialahmadi, M.; Müller-Steinhagen, H.; Izadpanah, M. R.: Pressure drop, gas hold-up and heat transfer during single and two-phase flow through porous media, International journal of heat and fluid flow 26, No. 1, 156-172 (2005)
[577] Liu, Y.; Leong, K. C.: The effect of operating conditions on the performance of zeolite/water adsorption cooling systems, Applied thermal engineering 25, No. 10, 1403-1418 (2005)
[578] Moreira, M. F. P.; Thoméo, J. C.; Freire, J. T.: Analysis of the heat transfer in a packed bed with cocurrent gas-liquid upflow, Industrial and engineering chemistry research 44, No. 11, 4142-4146 (2005)
[579] Swasdisevi, T.: Prediction of gas-particle dynamics and heat transfer in a two-dimensional spouted bed, Advanced powder technology 16, No. 3, 275-293 (2005)
[580] Benard, J.: Boiling in porous media: model and simulations, Transport in porous media 60, No. 1, 1-31 (2005)
[581] Chai, L. H.; Wen, D. S.: Theoretical analyses on boiling critical heat flux with porous media, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 9, 780-784 (2005)
[582] Ginkin, V. P.: Porous solid model to describe heat-mass transfer near phase transition interface in crystal growth from melt simulations, Journal of porous media 8, No. 4, 347-354 (2005)
[583] Kamiuto, K.: Mist transpiration cooling system using open-cellular porous materials, Journal of thermophysics and heat transfer 19, No. 2, 250-251 (2005)
[584] Kolunin, V. S.: Heat and mass transfer in porous media with ice inclusions near the freezing-point, International journal of heat and mass transfer 48, No. 6, 1175-1185 (2005) · Zbl 1189.76601
[585] Maharaj, Y.; Govender, S.: Effects of the Darcy-Prandtl number on the linear stability of stationary convection in rotating mushy layers, Journal of porous media 8, No. 3, 271-280 (2005)
[586] Selih, J.; Sousa, A. C. M.: Modeling of multiphase flow with phase change in porous media - a case study, Materialwissenschaft und werkstofftechnik 36, No. 10, 594-601 (2005)
[587] Tashtoush, B.: Magnetic and buoyancy effects on melting from a vertical plate embedded in saturated porous media, Energy conversion and management 46, No. 15 – 16, 2566-2577 (2005)
[588] Tsypkin, G. G.; Woods, A. W.: Precipitate formation in a porous rock through evaporation of saline water, Journal of fluid mechanics 537, 35-53 (2005) · Zbl 1099.76068
[589] Wang, S. C.; Chen, C. K.; Yang, Y. T.: Film condensation on a finite-size horizontal wavy plate bounded by a homogenous porous layer, Applied thermal engineering 25, No. 4, 577-590 (2005)
[590] Zeisberger, A.; Mayinger, F.: Void fraction and heat transport in two-dimensional mixed size particle beds with internal heat sources, Nuclear engineering and design 235, No. 20, 2209-2218 (2005)
[591] Luo, J.; Cao, L.: A reiterated two-scale probabilistic modeling and numerical simulation for heat equation in a fractal porous media, Heat transfer - asian research 34, No. 3, 188-196 (2005)
[592] Paderin, L. Y.: Experimental study of the heat transfer in porous semitransparent heat-shield materials, Journal of engineering physics and thermophysics 78, No. 1, 60-67 (2005)
[593] Sassi, L.: Hot-wire method for measuring effective thermal conductivity of porous media, Journal of porous media 8, No. 2, 97-113 (2005)
[594] Shiina, Y.; Inagaki, T.: Study on the efficiency of effective thermal conductivities on melting characteristics of latent heat storage capsules, International journal of heat and mass transfer 48, No. 2, 373-383 (2005) · Zbl 1121.76507
[595] Skrinska, A.; Vegyte, N.: Augmentation of thermal effectiveness in the fixation of fibrous material structures, Heat transfer engineering 26, No. 2, 93-98 (2005)
[596] Yu, B.; Zou, M.; Feng, Y.: Permeability of fractal porous media by Monte Carlo simulations, International journal of heat and mass transfer 48, No. 13, 2787-2794 (2005) · Zbl 1189.74095
[597] Zhang, D.: Granular phase changing composites for thermal energy storage, Solar energy 78, No. 3, 471-480 (2005)
[598] Nnanna, A. G. A.; Haji-Sheikh, A.; Harris, K. T.: Experimental study of non-Fourier thermal response in porous media, Journal of porous media 8, No. 1, 31-44 (2005) · Zbl 1194.80108
[599] Vadasz, P.: Lack of oscillations in dual-phase-lagging heat conduction for a porous slab subject to imposed heat flux and temperature, International journal of heat and mass transfer 48, No. 14, 2822-2828 (2005) · Zbl 1189.76613
[600] Vadasz, P.: Explicit conditions for local thermal equilibrium in porous media heat conduction, Transport in porous media 59, No. 3, 341-355 (2005)
[601] Vadasz, P.: Absence of oscillations and resonance in porous media dual-phase-lagging Fourier heat conduction, Journal of heat transfer 127, No. 3, 307-314 (2005)
[602] Cherif, B.; Sifaoui, M. S.: Numerical study of heat transfer in an optically thick semi-transparent spherical porous medium, Journal of quantitative spectroscopy and radiative transfer 91, No. 3, 363-372 (2005)
[603] Timoumi, M.; Chérif, B.; Sifaoui, M. S.: Numerical heat transfer study in a scattering, absorbing and emitting semi-transparent porous medium in a cylindrical enclosure, Journal of quantitative spectroscopy and radiative transfer 96, No. 3 – 4, 439-450 (2005)
[604] Giacobbe, F. W.: Determination of gaseous heat transfer coefficients at elevated temperatures, Applied thermal engineering 25, No. 2 – 3, 205-225 (2005)
[605] Kingsley-Rowe, J. R.; Lock, G. D.; Owen, J. M.: Transient heat transfer measurements using thermochromic liquid crystal: lateral-conduction error, International journal of heat and fluid flow 26, No. 2, 256-263 (2005)
[606] Nellis, G.; Hughes, C.; Pfotenhauer, J.: Heat transfer coefficient measurements for mixed gas working fluids at cryogenic temperatures, Cryogenics 45, No. 8, 546-556 (2005)
[607] Ochoa, A. D.; Baughn, J. W.; Byerley, A. R.: A new technique for dynamic heat transfer measurements and flow visualization using liquid crystal thermography, International journal of heat and fluid flow 26, No. 2, 264-275 (2005)
[608] Kobus, C. J.: Utilizing disk thermistors to indirectly measure convective heat transfer coefficients for forced, natural and combined (mixed) convection, Experimental thermal and fluid science 29, No. 6, 659-669 (2005)
[609] Li, D.; Wells, M. A.: Effect of subsurface thermocouple installation on the discrepancy of the measured thermal history and predicted surface heat flux during a quench operation, Metallurgical and materials transactions B: process metallurgy and materials processing science 36, No. 3, 343-354 (2005)
[610] Murthy, A. V.; Fraser, G. T.; Dewitt, D. P.: A summary of heat-flux sensor calibration data, Journal of research of the national institute of standards and technology 110, No. 2, 97-100 (2005)
[611] Dong, H. B.; Hunt, J. D.: A numerical model for a heat flux DSC: determining heat transfer coefficients within a DSC, Materials science and engineering A 413-414, 470-473 (2005)
[612] Drebushchak, V. A.: Calibration coefficient of a heat-flow DSC: part II. Optimal calibration procedure, Journal of thermal analysis and calorimetry 79, No. 1, 213-218 (2005)
[613] Fernandez-Seara, J.: Experimental apparatus for measuring heat transfer coefficients by the Wilson plot method, European journal of physics 26, No. 3 (2005)
[614] Follador, R. C.: Preliminary study of CVD diamond film to improve the performance of heat flux sensors for hypersonic experiments, Diamond and related materials 14, No. 3 – 7, 637-640 (2005)
[615] Tardu, F. S.; Pham, C. T.: Response of wall hot-film gages with longitudinal diffusion and heat conduction to the substrate, Journal of heat transfer 127, No. 8, 812-819 (2005)
[616] Wagner, G.: The transient liquid crystal technique: influence of surface curvature and finite wall thickness, Journal of turbomachinery 127, No. 1, 175-182 (2005)
[617] Walker, D. G.: Heat flux determination from measured heating rates using thermographic phosphors, Journal of heat transfer 127, No. 6, 560-570 (2005)
[618] Frankel, J. I.: Motivation for the development of new thermal rate sensors for material science applications, International journal of materials and product technology 24, No. 1 – 4, 199-206 (2005)
[619] Anthony, R. J.; Jones, T. V.; Lagraff, J. E.: High frequency surface heat flux imaging of bypass transition, Journal of turbomachinery 127, No. 2, 241-250 (2005)
[620] Vitrac, O.; Trystram, G.: A method for time and spatially resolved measurement of convective heat transfer coefficient (h) in complex flows, Chemical engineering science 60, No. 5, 1219-1236 (2005)
[621] Kittel, A.: Near-field heat transfer in a scanning thermal microscope, Physical review letters 95, No. 22, 1-4 (2005)
[622] Gonzalez, D. A.: Defect assessment on radiant heaters using infrared thermography, NDT and E international 38, No. 6, 428-432 (2005)
[623] Frankel, J. I.; Lawless, J. L.: Numerically stabilizing ill-posed moving surface problems through heat-rate sensors, Journal of thermophysics and heat transfer 19, No. 4, 587-592 (2005)
[624] Amarante, A.; Lanoisellé, J. L.: Heat transfer coefficients measurement in industrial freezing equipment by using heat flux sensors, Journal of food engineering 66, No. 3, 377-386 (2005)
[625] Heichal, Y.; Chandra, S.; Bordatchev, E.: A fast-response thin film thermocouple to measure rapid surface temperature changes, Experimental thermal and fluid science 30, No. 2, 153-159 (2005)
[626] Imran, M.; Bhattacharyya, A.: Thermal response of an on-chip assembly of RTD heaters, sputtered sample and microthermocouples, Sensors and actuators, A: physical 121, No. 2, 306-320 (2005)
[627] Jacquemin, P.: Design of a confocal holography microscope for three-dimensional temperature measurements of fluids in microgravity, Microgravity science and technology 17, No. 4, 36-40 (2005)
[628] Abakar, M. T.: Thermal measurement equipment for magnetic components, EPJ applied physics 30, No. 1, 57-64 (2005)
[629] Anderson, M. R.; Baughn, J. W.: Liquid-crystal thermography: illumination spectral effects. Part 1 – experiments, Journal of heat transfer 127, No. 6, 581-587 (2005)
[630] Anderson, M. R.; Baughn, J. W.: Thermochromic liquid crystal thermography: illumination spectral effects. Part 2 – theory, Journal of heat transfer 127, No. 6, 588-597 (2005)
[631] Shedd, T. A.; Anderson, B. W.: An automated non-contact wall temperature measurement using thermoreflectance, Measurement science and technology 16, No. 12, 2483-2488 (2005)
[632] Tagawa, M.; Kato, K.; Ohta, Y.: Response compensation of fine-wire temperature sensors, Review of scientific instruments 76, No. 9, 1-10 (2005)
[633] Xue, Z.; Qiu, H.: Integrating micromachined fast response temperature sensor array in a Glass microchannel, Sensors and actuators, A: physical 122, No. 2, 189-195 (2005)
[634] Bakirov, V. F.; Kline, R. A.: Diffusion-based thermal tomography, Journal of heat transfer 127, No. 11, 1276-1279 (2005)
[635] Liu, Y.; Zhang, X.: Influence of participating media on the radiation thermometry for surface temperature measurement, Journal of thermal science 14, No. 4 (2005)
[636] Matsuda, A.: Absorption spectroscopy for temperature measurement behind shock wave at super-orbital velocity, Journal of thermophysics and heat transfer 19, No. 3, 294-299 (2005)
[637] Patil, V. A.; Narayanan, V.: Application of heated-thin-foil thermography technique to external convective microscale flows, Measurement science and technology 16, No. 2, 472-476 (2005)
[638] Gertsriken, D. S.: Determining the duration of mass transfer and the temperature of metal subjected to pulsed deformation, Physics of metals and metallography 99, No. 2, 187-193 (2005)
[639] Chao, J.: Effect of conjugate heat transfer on MEMS-based thermal shear stress sensor, Numerical heat transfer; part A: applications 48, No. 3, 197-217 (2005)
[640] Lin, Q.: A parametrized three-dimensional model for MEMS thermal shear-stress sensors, Journal of microelectromechanical systems 14, No. 3, 625-633 (2005)
[641] Smith, J. S.; Baughn, J. W.; Byerley, A. R.: Surface flow visualization using thermal tufts produced by an encapsulated phase change material, International journal of heat and fluid flow 26, No. 3, 411-415 (2005)
[642] Schmid, U.; Seidel, H.; Element, Study On An Injection Quantity Sensor. Ii: Evaluation Of The Sensing: Journal of micromechatronics, Journal of micromechatronics 3, No. 1, 33-50 (2005)
[643] Li, Y.; Naguib, A. M.: High-frequency oscillating-hot-wire sensor for near-wall diagnostics in separated flows, AIAA journal 43, No. 3, 520-529 (2005)
[644] Laghrouche, M.: A miniature silicon hot wire sensor for automatic wind speed measurements, Renewable energy 30, No. 12, 1881-1896 (2005)
[645] Rensen, J.: Hot-film anemometry in bubbly flow I: Bubble-probe interaction, International journal of multiphase flow 31, No. 3, 285-301 (2005) · Zbl 1135.76529
[646] Nguyen, N. T.: A novel thermal sensor concept for flow direction and flow velocity, IEEE sensors journal 5, No. 6, 1224-1234 (2005)
[647] Zaruba, A.: Measurement of bubble velocity profiles and turbulent diffusion coefficients of the gaseous phase in rectangular bubble column using image processing, Experimental thermal and fluid science 29 (7 SPEC. ISS.), 851-860 (2005)
[648] Hindmarsh, J. P.: Rapid measurement of dispersion and velocity in freezing drops using magnetic resonance methods, Experiments in fluids 38, No. 6, 750-758 (2005)
[649] Han, I. Y.; Kim, D. K.; Kim, S. J.: Study on the transient characteristics of the sensor tube of a thermal mass flow meter, International journal of heat and mass transfer 48, No. 13, 2583-2592 (2005)
[650] Taketoshi, N.; Baba, T.; Ono, A.: Electrical delay technique in the picosecond thermoreflectance method for thermophysical property measurements of thin films, Review of scientific instruments 76, No. 9, 1-8 (2005)
[651] Tsushima, N.: Visualization of transient solidification process of aqueous solution by dual wavelength holographic interferometry, Journal of heat transfer 127, No. 8, 801 (2005)
[652] Turner, D. J.; Kumar, P.; Sloan, E. D.: A new technique for hydrate thermal diffusivity measurements, International journal of thermophysics 26, No. 6, 1681-1691 (2005)
[653] Rombouts, M.: Photopyroelectric measurement of thermal conductivity of metallic powders, Journal of applied physics 97, No. 2 (2005)
[654] Pradre, C.: Specific-heat measurement of single metallic, carbon, and ceramic fibers at very high temperature, Review of scientific instruments 76, No. 6, 1-6 (2005)
[655] Pak, J.: Can one measure precise heat capacities with DSC or TMDSC? A study of the baseline and heat-flow rate correction, Journal of thermal analysis and calorimetry 82, No. 3, 565-574 (2005)
[656] Kim, Y. M.; Kim, W. S.; Chun, W. G.: A numerical study of the thermal entrance effect in miniature thermal conductivity detectors, Heat transfer engineering 26, No. 4, 65-72 (2005)
[657] Kaschnitz, E.; Supancic, P.: Three-dimensional finite-element analysis of high-speed (Millisecond) measurements, International journal of thermophysics 26, No. 4, 957-967 (2005)
[658] Lee, B. J.: Modeling radiative properties of silicon with coatings and comparison with reflectance measurements, Journal of thermophysics and heat transfer 19, No. 4, 558-565 (2005)
[659] Stevens, R. J.; Smith, A. N.; Norris, P. M.: Measurement of thermal boundary conductance of a series of metal-dielectric interfaces by the transient thermoreflectance technique, Journal of heat transfer 127, No. 3, 315-322 (2005)
[660] Rondot, S.: X-ray radiography applied to an investigation of thermal diffusion, Measurement science and technology 16, No. 5, 1138-1144 (2005)
[661] Li, Z. Q.; Zhang, X.; Zhang, J. T.: Solution of transient temperature field for thermographic NDT under joule effect heating, Journal of heat transfer 127, No. 7, 670-674 (2005)
[662] Popov, S.: Apparatus for investigation of evaporation at free liquid-vapour interfaces, International journal of heat and mass transfer 48, No. 11, 2299-2309 (2005)
[663] Gatzen, H. H.: Thermal sensor for in situ flying height measurements of optical flying heads, Tribology international 38, No. 6 – 7, 594-598 (2005)
[664] Maki, S.: Natural convection of a paramagnetic liquid controlled by magnetization force, Aiche journal 51, No. 4, 1096-1103 (2005)
[665] Srivastava, A.; Panigrahi, P. K.; Muralidhar, K.: Interferometric study of buoyancy-driven convection in a differentially heated circular fluid layer, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 4, 353-359 (2005)
[666] Zhou, T.; Yang, R. C.; Jia, D. N.: Analysis on thermophoretic deposit of fine particle on water wall of 10 MW high temperature gas-cooled reactor, Nuclear science and techniques/hewuli 16, No. 1, 46-52 (2005)
[667] Wen, D.; Ding, Y.: Formulation of nanofluids for natural convective heat transfer applications, International journal of heat and fluid flow 26, No. 6, 855-864 (2005)
[668] Dai, C.; Inaba, H.: Neutral instability and optimum convective mode in a fluid layer with PCM particles, Journal of heat transfer 127, No. 12, 1289-1295 (2005)
[669] Tzeng, P. Y.; Liu, M. H.: Influence of number of simulated particles on DSMC modeling of micro-scale Rayleigh-Bénard flows, International journal of heat and mass transfer 48, No. 14, 2841-2855 (2005) · Zbl 1189.76423
[670] Tzeng, P. Y.; Liu, M. H.: Direct-simulation Monte Carlo modeling on two-dimensional Rayleigh-Bénard instabilities of rarefied gas, Numerical heat transfer; part A: applications 47, No. 8, 805-823 (2005)
[671] Semma, E.: The effect of wall temperature fluctuations on the heat transfer and fluid flow occuring in a liquid enclosure, International journal of heat and fluid flow 26 (4 SPEC. ISS.), 547-557 (2005)
[672] Nikolaenko, A.: Heat transport by turbulent Rayleigh-Bénard convection in cylindrical cells with aspect ratio one and less, Journal of fluid mechanics 523, 251-260 (2005) · Zbl 1060.76511
[673] Holmedal, B.: Stability of squares and rolls in Rayleigh-Bénard convection in an infinite-Prandtl-number fluid between slabs, Journal of fluid mechanics 537, 271-284 (2005) · Zbl 1073.76030
[674] Hatanaka, M.; Tagawa, T.; Ozoe, H.: Conjugate numerical computation for the natural convection of liquid metal heated from below, Numerical heat transfer; part A: applications 47, No. 7, 709-723 (2005)
[675] Brown, E.: Heat transport in turbulent Rayleigh-Bénard convection: effect of finite top- and bottom-plate conductivities, Physics of fluids 17, No. 7, 1-10 (2005) · Zbl 1187.76069
[676] Arquis, E.; Rady, M.: Study of natural convection heat transfer in a finned horizontal fluid layer, International journal of thermal sciences 44, No. 1, 43-52 (2005)
[677] Zhao, C. Y.; Lu, T. J.; Hodson, H. P.: Natural convection in metal foams with open cells, International journal of heat and mass transfer 48, No. 12, 2452-2463 (2005) · Zbl 1189.76568
[678] Zhao, B.; Vanka, S. P.; Thomas, B. G.: Numerical study of flow and heat transfer in a molten flux layer, International journal of heat and fluid flow 26, No. 1, 105-118 (2005)
[679] Tasaka, Y.; Takeda, Y.: Effects of heat source distribution on natural convection induced by internal heating, International journal of heat and mass transfer 48, No. 6, 1164-1174 (2005) · Zbl 1189.76564
[680] Sarris, I. E.: MHD natural convection in a laterally and volumetrically heated square cavity, International journal of heat and mass transfer 48, No. 16, 3443-3453 (2005) · Zbl 1189.76790
[681] Roschina, N. A.; Uvarov, A. V.; Osipov, A. I.: Natural convection in an annulus between coaxial horizontal cylinders with internal heat generation, International journal of heat and mass transfer 48, No. 21 – 22, 4518-4525 (2005) · Zbl 1189.76561
[682] Hossain, M. A.; Hafiz, M. Z.; Rees, D. A. S.: Buoyancy and thermocapillary driven convection flow of an electrically conducting fluid in an enclosure with heat generation, International journal of thermal sciences 44, No. 7, 676-684 (2005)
[683] Sugilal, G.; Wattal, P. K.; Iyer, K.: Convective behaviour of a uniformly joule-heated liquid pool in a rectangular cavity, International journal of thermal sciences 44, No. 10, 915-925 (2005)
[684] Ridouane, E. H.; Campo, A.; Chang, J. Y.: Natural convection patterns in right-angled triangular cavities with heated vertical sides and cooled hypotenuses, Journal of heat transfer 127, No. 10, 1181-1186 (2005)
[685] Wang, X.; Carey, G. F.: On Marangoni effects in a heated thin fluid layer with a monolayer surfactant. Part I: Model development and stability analysis, International journal for numerical methods in fluids 48, No. 1, 1-16 (2005) · Zbl 1063.76033
[686] Alexeev, A.; Gambaryan-Roisman, T.; Stephan, P.: Marangoni convection and heat transfer in thin liquid films on heated walls with topography: experiments and numerical study, Physics of fluids 17, No. 6, 1-13 (2005) · Zbl 1187.76017
[687] Tan, K. K.: Predicting Marangoni convection caused by transient gas diffusion in liquids, International journal of heat and mass transfer 48, No. 1, 135-144 (2005) · Zbl 1121.76334
[688] Huo, Y.; Li, B. Q.: A mathematical model for Marangoni flow and mass transfer in electrostatically positioned droplets, Metallurgical and materials transactions B: process metallurgy and materials processing science 36, No. 2, 271-281 (2005)
[689] Reynard, C.: Experimental study of the onset of the 3D oscillatory thermocapillary convection around a single air or vapor bubble: influence on heat transfer, Experimental thermal and fluid science 29 (7 SPEC. ISS.), 783-793 (2005)
[690] Kuzhir, P.: Capillary flow of a suspension of non-magnetic particles in a ferrofluid under highly non-uniform magnetic field, International journal of multiphase flow 31, No. 2, 201-221 (2005) · Zbl 1135.76472
[691] Karlov, S. P.: Experimental and numerical study of the Marangoni convection due to localized laser heating, Journal of non-equilibrium thermodynamics 30, No. 3, 283-304 (2005) · Zbl 1080.80006
[692] Li, K.: Marangoni flow in half-zone liquid Bridge of molten tin under ramped temperature difference, Journal of crystal growth 280, No. 3-4, 620-631 (2005)
[693] Ding, H.: Simulation of natural convection in eccentric annuli between a square outer cylinder and a circular inner cylinder using local MQ-DQ method, Numerical heat transfer; part A: applications 47, No. 3, 291-313 (2005)
[694] Sabeur-Bendehina, A.: Influence of boundary conditions on free convection in an inclined rectangular cavity with a wavy wall, International journal of heat and technology 23, No. 1, 131-136 (2005)
[695] Adeyinka, O. B.; Naterer, G. F.: Particle image velocimetry based measurement of entropy production with free convection heat transfer, Journal of heat transfer 127, No. 6, 614-623 (2005)
[696] Bednarz, T.: Convection of air in a cubic enclosure with an electric coil inclined in general orientations, Fluid dynamics research 36, No. 2, 91-106 (2005) · Zbl 1153.76415
[697] Bilgen, E.: Natural convection in cavities with a thin fin on the hot wall, International journal of heat and mass transfer 48, No. 17, 3493-3505 (2005) · Zbl 1189.76515
[698] Da Silva, A. K.; Gosselin, L.: On the thermal performance of an internally finned three-dimensional cubic enclosure in natural convection, International journal of thermal sciences 44, No. 6, 540-546 (2005)
[699] He, Y. L.; Yang, W. W.; Tao, W. Q.: Three-dimensional numerical study of natural convective heat transfer of liquid in a cubic enclosure, Numerical heat transfer; part A: applications 47, No. 9, 917-934 (2005)
[700] Kalabin, E. V.; Kanashina, M. V.; Zubkov, P. T.: Heat transfer from the cold wall of a square cavity to the hot one by oscillatory natural convection, Numerical heat transfer; part A: applications 47, No. 6, 609-619 (2005)
[701] Kalabin, E. V.; Kanashina, M. V.; Zubkov, P. T.: Natural-convective heat transfer in a square cavity with time-varying side-wall temperature, Numerical heat transfer; part A: applications 47, No. 6, 621-631 (2005)
[702] Lo, D. C.; Young, D. L.; Murugesan, K.: GDQ method for natural convection in a cubic cavity using velocity-vorticity formulation, Numerical heat transfer, part B: fundamentals 48, No. 4, 363-386 (2005)
[703] Lo, D. C.; Young, D. L.; Murugesan, K.: GDQ method for natural convection in a square cavity using velocity-vorticity formulation, Numerical heat transfer, part B: fundamentals 47, No. 4, 321-341 (2005)
[704] Chen, B.; Mikami, F.; Nishikawa, N.: Experimental studies on transient features of natural convection in particles suspensions, International journal of heat and mass transfer 48, No. 14, 2933-2942 (2005)
[705] Snoussi, L. B.; Chouikh, R.; Guizani, A.: Numerical study of the natural convection flow resulting from the combined buoyancy effects of thermal and mass diffusion in a cavity with differentially heated side walls, Desalination 182, No. 1 – 3, 143-150 (2005)
[706] Ampofo, F.: Turbulent natural convection of air in a non-partitioned or partitioned cavity with differentially heated vertical and conducting horizontal walls, Experimental thermal and fluid science 29, No. 2, 137-157 (2005)
[707] Bae, J. H.; Hyun, J. M.; Kwak, H. S.: Buoyant convection of a variable-viscosity fluid in an enclosure with discrete protruding heaters, Progress in computational fluid dynamics 5, No. 3 – 5, 144-151 (2005) · Zbl 1189.76510
[708] Aydin, O.; Pop, I.: Natural convection from a discrete heater in enclosures filled with a micropolar fluid, International journal of engineering science 43, No. 19 – 20, 1409-1418 (2005) · Zbl 1211.76104
[709] Barrow, H.; Pope, C. W.: Flow and heat-transfer in an internally-heated, naturally-ventilated space, Applied energy 80, No. 4, 427-434 (2005)
[710] Barrow, H.; Pope, C. W.: Theoretical and experimental investigation of flow and heat transfer in an internally-heated naturally-ventilated space, Applied energy 80, No. 1, 67-75 (2005)
[711] Khaldi, F.; Noudem, J.; Gillon, P.: On the similarity between gravity and magneto-gravity convection within a non-electroconducting fluid in a differentially heated rectangular cavity, International journal of heat and mass transfer 48, No. 7, 1350-1360 (2005) · Zbl 1189.76490
[712] Kumar, N. V. Satish: Theoretical studies on thermal stratification in a side heated cavity, Kerntechnik 70, No. 3, 120-126 (2005)
[713] Wen, C. Y.; Su, W. P.: Natural convection of magnetic fluid in a rectangular Hele-Shaw cell, Journal of magnetism and magnetic materials 289, 299-302 (2005)
[714] Xaman, J.: Numerical study of heat transfer by laminar and turbulent natural convection in tall cavities of façade elements, Energy and buildings 37, No. 7, 787-794 (2005)
[715] Cheng, C. H.; Hung, K. S.: Numerical predictions of thermal convection in a rectangular enclosure with oscillating wall, Numerical heat transfer; part A: applications 48, No. 8, 791-809 (2005)
[716] Cianfrini, C.; Corcione, M.; Dell’omo, P. P.: Natural convection in tilted square cavities with differentially heated opposite walls, International journal of thermal sciences 44, No. 5, 441-451 (2005)
[717] Dalal, A.; Das, M. K.: Laminar natural convection in an inclined complicated cavity with spatially variable wall temperature, International journal of heat and mass transfer 48, No. 18, 3833-3854 (2005) · Zbl 1189.76526
[718] Goldstein, R. J.: Local mass transfer measurements in an inclined enclosure at high Rayleigh number, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 991-998 (2005)
[719] Cheng, C. H.; Chen, C. L.: Numerical study of effects of inclination on buoyancy-induced flow oscillation in a lid-driven arc-shaped cavity, Numerical heat transfer; part A: applications 48, No. 1, 77-97 (2005)
[720] Wang, X.: The behavior of microscaled Brownian particles in a cylinder under natural-and magnetic-convection flow field of air, Numerical heat transfer; part A: applications 47, No. 4, 353-373 (2005)
[721] De Cesaro Oliveski, R.: Natural convection in a tank of oil: experimental validation of a numerical code with prescribed boundary condition, Experimental thermal and fluid science 29, No. 6, 671-680 (2005)
[722] Lee, S. H.; Hyun, J. M.: Transient buoyant convection of air in an enclosure under strong magnetic effect, International journal of heat and mass transfer 48, No. 15, 3097-3106 (2005) · Zbl 1189.76545
[723] Polat, O.; Bilgen, E.: Natural convection and conduction heat transfer in open shallow cavities with bounding walls, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 10, 931-939 (2005)
[724] Hinojosa, J. F.: Numerical study of transient and steady-state natural convection and surface thermal radiation in a horizontal square open cavity, Numerical heat transfer; part A: applications 48, No. 2, 179-196 (2005)
[725] Chang, S. W.: Free connective heat transfer in tilted longitudinal open cavity, Heat transfer engineering 26, No. 10, 46-64 (2005)
[726] Bilgen, E.; Oztop, H.: Natural convection heat transfer in partially open inclined square cavities, International journal of heat and mass transfer 48, No. 8, 1470-1479 (2005) · Zbl 1189.76516
[727] Shu, Y.; Li, B. Q.; Ramaprian, B. R.: Convection in modulated thermal gradients and gravity: experimental measurements and numerical simulations, International journal of heat and mass transfer 48, No. 1, 145-160 (2005)
[728] Diez, F. J.; Bernal, L. P.; Faeth, G. M.: PLIF and PIV measurements of the self-preserving structure of steady round buoyant turbulent plumes in crossflow, International journal of heat and fluid flow 26, No. 6, 873-882 (2005)
[729] Hernandez, J.; Zamora, B.: Effects of variable properties and non-uniform heating on natural convection flows in vertical channels, International journal of heat and mass transfer 48, No. 3 – 4, 793-807 (2005) · Zbl 1121.76400
[730] Da Silva, A. K.; Lorenzini, G.; Bejan, A.: Distribution of heat sources in vertical open channels with natural convection, International journal of heat and mass transfer 48, No. 8, 1462-1469 (2005) · Zbl 1189.76569
[731] Bhowmik, H.; Tso, C. P.; Tou, K. W.: Analyses of natural convection heat transfer in a liquid cooled vertical channel, International journal of heat and technology 23, No. 1, 115-121 (2005)
[732] Chen, C. K.; Weng, H. C.: Natural convection in a vertical microchannel, Journal of heat transfer 127, No. 9, 1053-1056 (2005)
[733] Das, S. S.; Sahoo, S. K.; Panda, J. P.: Unsteady free convection MHD flow of a second order fluid between two heated vertical plates through a porous medium with mass transfer and internal heat generation, Modelling, measurement and control B 74, No. 7 – 8, 41-62 (2005)
[734] El-Samni, O. A.; Yoon, H. S.; Chun, H. H.: Direct numerical simulation of turbulent flow in a vertical channel with buoyancy orthogonal to mean flow, International journal of heat and mass transfer 48, No. 7, 1267-1282 (2005) · Zbl 1189.76250
[735] Slimi, K.: Anisotropy effects on heat and fluid flow by unsteady natural convection and radiation in saturated porous media, Numerical heat transfer; part A: applications 48, No. 8, 763-790 (2005)
[736] Andreozzi, A.; Buonomo, B.; Manca, O.: Numerical study of natural convection in vertical channels with adiabatic extensions downstream, Numerical heat transfer; part A: applications 47, No. 8, 741-762 (2005)
[737] Campo, A.; Manca, O.; Morrone, B.: Natural convection in vertical, parallel-plate channels with appended unheated entrances, International journal of numerical methods for heat and fluid flow 15, No. 2, 183-204 (2005)
[738] Manca, O.; Musto, M.; Naso, V.: Experimental investigation of natural convection in an asymmetrically heated vertical channel with an asymmetric chimney, Journal of heat transfer 127, No. 8, 888-896 (2005)
[739] Hosseini, R.; Heyrani-Nobari, M. R.; Hatam, M.: An experimental study of heat transfer in an open-ended vertical eccentric annulus with insulated and constant heat flux boundaries, Applied thermal engineering 25, No. 8 – 9, 1247-1257 (2005)
[740] Filar, P.: Numerical analysis for air convection in a vertical cylinder heated and cooled from a side wall under a strong magnetic field, Progress in computational fluid dynamics 5, No. 3 – 5, 252-260 (2005) · Zbl 1189.76531
[741] Ahmad, N.; Zaidi, H. N.: Effect of couple stresses on oberback convection in a vertical stratum, International journal of heat and technology 23, No. 1, 103-108 (2005)
[742] Ma, D. J.; Henry, D.; Hadid, H. B.: Three-dimensional numerical study of natural convection in vertical cylinders partially heated from the side, Physics of fluids 17, No. 12, 1-12 (2005) · Zbl 1188.76085
[743] Akamatsu, M.; Higano, M.; Ozoe, H.: Aerial flow in a vertical cylindrical container with thermal gradient under a vertical magnetic field, Progress in computational fluid dynamics 5, No. 3 – 5, 236-244 (2005) · Zbl 1189.76773
[744] Akamatsu, M.: Numerical computation of magnetothermal convection of water in a vertical cylindrical enclosure, International journal of heat and fluid flow 26 (4 SPEC. ISS.), 622-634 (2005)
[745] Filar, P.: Three-dimensional numerical computation for magnetic convection of air inside a cylinder heated and cooled isothermally from a side wall, International journal of heat and mass transfer 48, No. 9, 1858-1867 (2005) · Zbl 1189.76530
[746] Fornalik, E.: Experimental study on the magnetic convection in a vertical cylinder, Experimental thermal and fluid science 29, No. 8, 971-980 (2005)
[747] Lin, W.; Armfield, S. W.: Long-term behavior of cooling fluid in a vertical cylinder, International journal of heat and mass transfer 48, No. 1, 53-66 (2005) · Zbl 1121.76305
[748] Noto, K.; Mitsuhashi, S.: Temperature field with thermal cylinders in buoyant flow in stably stratified air, Numerical heat transfer; part A: applications 47, No. 4, 393-415 (2005)
[749] Grassi, W.; Testi, D.; Saputelli, M.: Heat transfer enhancement in a vertical annulus by electrophoretic forces acting on a dielectric liquid, International journal of thermal sciences 44, No. 11, 1072-1077 (2005)
[750] Inaba, Y.: Natural convection heat transfer of high temperature gas in an annulus between two vertical concentric cylinders, Heat transfer - asian research 34, No. 5, 293-308 (2005)
[751] Eid, E. I.: Natural convection heat transfer in elliptic annuli with different aspect ratios, AEJ - Alexandria engineering journal 44, No. 2, 203-215 (2005)
[752] Elshazly, K.: Heat transfer by free convection from the inside surface of the vertical and inclined elliptic tube, Energy conversion and management 46, No. 9 – 10, 1443-1463 (2005)
[753] Bazargan, M.; Fraser, D.; Chatoorgan, V.: Effect of buoyancy on heat transfer in supercritical water flow in a horizontal round tube, Journal of heat transfer 127, No. 8, 897-902 (2005)
[754] Hasan, N.; Anwer, S. F.; Sanghi, S.: Natural convection in a bottom heated horizontal cylinder, Physics of fluids 17, No. 6, 1-17 (2005) · Zbl 1187.76206
[755] Alshahrani, D.; Zeitoun, O.: Natural convection in air-filled horizontal cylindrical annuli, AEJ - Alexandria engineering journal 44, No. 6, 813-823 (2005)
[756] Alshahrani, D.; Zeitoun, O.: Natural convection in horizontal cylindrical annuli with fins, AEJ - Alexandria engineering journal 44, No. 6, 825-837 (2005)
[757] Chen, W. R.: Transient natural convection of micropolar fluids between concentric and vertically eccentric spheres, International journal of heat and mass transfer 48, No. 10, 1936-1951 (2005) · Zbl 1189.76521
[758] Borjini, M. N.; Abidi, A.; Ben Aissia, H.: Prediction of unsteady natural convection within A horizontal narrow annular space using the control-volume method, Numerical heat transfer; part A: applications 48, No. 8, 811-829 (2005)
[759] Garnier, J.; Masse, L.: Statistical approach of weakly nonlinear ablative Rayleigh-Taylor instability, Physics of plasmas 12, No. 6, 1-11 (2005)
[760] Lo, D. C.; Young, D. L.; Lin, Y. C.: Finite-element analysis of 3-D viscous flow and mixed-convection problems by the projection method, Numerical heat transfer; part A: applications 48, No. 4, 339-358 (2005)
[761] Bhoite, M. T.; Narasimham, G. S. V.L.; Murthy, M. V. Krishna: Mixed convection in a shallow enclosure with a series of heat generating components, International journal of thermal sciences 44, No. 2, 121-135 (2005)
[762] Ghasemi, B.: Mixed convection in a rectangular cavity with a pulsating heated electronic component, Numerical heat transfer; part A: applications 47, No. 5, 505-521 (2005)
[763] Chen, Y. G.; Yuan, X. L.: Simulation of a cavity insulated by a vertical single band cold air curtain, Energy conversion and management 46, No. 11 – 12, 1745-1756 (2005)
[764] Blinov, M. A.: Natural and mixed convection heat transfer of a cooling air in fissile material and spent fuel storage facilities, Heat transfer research 36, No. 4, 295-309 (2005)
[765] Zeitoun, O.: Natural convection from a vertical plate enclosed in a horizontal cylinder, International journal of heat and technology 23, No. 1, 155-161 (2005)
[766] Merrikh, A. A.; Lage, J. L.: Natural convection in an enclosure with disconnected and conducting solid blocks, International journal of heat and mass transfer 48, No. 7, 1361-1372 (2005) · Zbl 1189.76552
[767] Bello-Ochende, T.; Bejan, A.: Constructal multi-scale cylinders with natural convection, International journal of heat and mass transfer 48, No. 21 – 22, 4300-4306 (2005) · Zbl 1189.76514
[768] Su, Y.; Davidson, J. H.; Flow, Natural Convective; Study, Heat Transfer In A. Collector Storage With An Immersed Heat Exchanger: Numerical: Journal of solar energy engineering, Transactions of the ASME 127, No. 3, 324-332 (2005)
[769] Lazarovici, A.; Volpert, V.; Merkin, J. H.: Steady states, oscillations and heat explosion in a combustion problem with convection, European journal of mechanics, B/fluids 24, No. 2, 189-203 (2005) · Zbl 1060.76127
[770] Borjini, M. N.: Hydromagnetic double-diffusive laminar natural convection in a radiatively participating fluid, Numerical heat transfer; part A: applications 48, No. 5, 483-506 (2005)
[771] Lee, C. T. A.: The role of chemical boundary layers in regulating the thickness of continental and oceanic thermal boundary layers, Earth and planetary science letters 230, No. 3 – 4, 379-395 (2005)
[772] Wunsch, S.; Kerstein, A. R.: A stochastic model for high-Rayleigh-number convection, Journal of fluid mechanics 528, 173-205 (2005) · Zbl 1165.76373
[773] Hanjalic, K.: Synergy of experiments and computer simulations in research of turbulent convection, International journal of heat and fluid flow 26, No. 6, 828-842 (2005)
[774] Yang, M.; Ma, N.: Free convection in a liquid-encapsulated molten semiconductor in a vertical magnetic field, International journal of heat and mass transfer 48, No. 19 – 20, 4010-4018 (2005) · Zbl 1188.76282
[775] Yang, M.; Ma, N.: A computational study of natural convection in a liquid-encapsulated molten semiconductor with a horizontal magnetic field, International journal of heat and fluid flow 26, No. 5, 810-816 (2005)
[776] Duwairi, H. M.; Chamkha, A. J.: Transient free convection flow of a micropolar fluid over a vertical surface, International journal of fluid mechanics research 32, No. 3, 255-268 (2005)
[777] Haddad, O. M.; Al-Nimr, M. A.; Al-Khateeb, A. N.: Validity of the local thermal equilibrium assumption in natural convection from a vertical plate embedded in a porous medium, Journal of porous media 8, No. 1, 85-95 (2005) · Zbl 1159.76380
[778] Holling, M.; Herwig, H.: Asymptotic analysis of the near-wall region of turbulent natural convection flows, Journal of fluid mechanics 541, 383-397 (2005) · Zbl 1082.76094
[779] Yan, Z. H.; Nilsson, E. E. A.: Large eddy simulation of natural convection along a vertical isothermal surface, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 1004-1013 (2005)
[780] Al-Odat, M. Q.; Damseh, R. A.; Duwairi, H. M.: Radiation effect on natural convection along a vertical wavy surface, International journal of heat and technology 23, No. 1, 73-80 (2005)
[781] Pantokratoras, A.: Unidirectional transport of heat and salt in free convection of water with variable physical properties along a vertical plate with uniform temperature and salinity, Chemical engineering science 60, No. 10, 2821-2826 (2005)
[782] Kumar, B. V. Rathish; Shalini: Combined influence of mass and thermal stratification on double-diffusion non-darcian natural convection from a wavy vertical wall to porous media, Journal of heat transfer 127, No. 6, 637-647 (2005)
[783] Chandran, P.; Sacheti, N. C.; Singh, A. K.: Natural convection near a vertical plate with ramped wall temperature, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 459-464 (2005)
[784] Fohanno, S.; Polidori, G.: Effect of the gap size in the start-up free convective flow around a square prism near a wall, International journal of heat and fluid flow 26, No. 1, 25-33 (2005)
[785] Radziemska, E.; Lewandowski, W. M.: Free convective heat transfer structures as a function of the width of isothermal horizontal rectangular plates, Heat transfer engineering 26, No. 4, 42-50 (2005)
[786] Radziemska, E.; Lewandowski, W. M.: The effect of plate size on the natural convective heat transfer intensity of horizontal surfaces, Heat transfer engineering 26, No. 2, 50-53 (2005)
[787] Bahadur, R.; Bar-Cohen, A.: Thermal design and optimization of natural convection polymer pin fin heat sinks, IEEE transactions on components and packaging technologies 28, No. 2, 238-246 (2005)
[788] Bhowmik, H.; Tou, K. W.: Experimental study of transient natural convection heat transfer from simulated electronic chips, Experimental thermal and fluid science 29, No. 4, 485-492 (2005)
[789] El Alami, M.: Electronic components cooling by natural convection in horizontal channel with slots, Energy conversion and management 46, No. 17, 2762-2772 (2005)
[790] Kandasamy, R.; Subramanyam, S.: Application of computational fluid dynamics simulation tools for thermal characterization of electronic packages, International journal of numerical methods for heat and fluid flow 15, No. 1, 61-72 (2005) · Zbl 1162.76363
[791] Kobus, C. J.; Oshio, T.: Development of a theoretical model for predicting the thermal performance characteristics of a vertical pin-fin array heat sink under combined forced and natural convection with impinging flow, International journal of heat and mass transfer 48, No. 6, 1053-1063 (2005) · Zbl 1189.76492
[792] Eveloy, V.; Rodgers, P.; Hashmi, M. S. J.: Numerical heat transfer predictive accuracy for an in-line array of board-mounted plastic quad flat back components in free convection, Journal of electronic packaging, transactions of the ASME 127, No. 3, 245-254 (2005)
[793] Icoz, T.; Jaluria, Y.: Numerical simulation of boundary conditions and the onset of instability in natural convection due to protruding thermal sources in an open rectangular channel, Numerical heat transfer; part A: applications 48, No. 9, 831-847 (2005)
[794] Abourida, B.; Hasnaoui, M.: Numerical study of partitions effect on multiplicity of solutions in an infinite channel periodically heated from below, Energy conversion and management 46, No. 17, 2697-2717 (2005)
[795] Da Silva, A. K.; Bejan, A.: Constructal multi-scale structure for maximal heat transfer density in natural convection, International journal of heat and fluid flow 26, No. 1, 34-44 (2005)
[796] Da Silva, A. K.; Lorenzini, G.; Bejan, A.: Distribution of heat sources in vertical open channels with natural convection, International journal of heat and mass transfer 48, No. 8, 1462-1469 (2005) · Zbl 1189.76569
[797] Zhang, X.; Maruyama, S.; Yamaguchi, H.: Laminar natural convection heat transfer from a vertical baffled plate subjected to a periodic oscillation, Journal of heat transfer 127, No. 7, 733-739 (2005)
[798] Farhadi, F.; Davani, N.; Ardalan, P.: New correlation for natural convection of finned tube A-type air cooler, Applied thermal engineering 25, No. 17 – 18, 3053-3066 (2005)
[799] Mil’man, O. O.; Aleshin, B. A.: Experimental investigation of heat transfer during the natural circulation of air in a model of an air condenser with an exhaust shaft, Thermal engineering (English translation of teploenergetika) 52, No. 5, 369-373 (2005)
[800] Molla, M. M.; Hossain, M. A.; Gorla, R. S. R.: Natural convection flow from an isothermal horizontal circular cylinder with temperature dependent viscosity, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 594-598 (2005)
[801] Jarall, S.; Campo, A.: Experimental study of natural convection from electrically heated vertical cylinders immersed in air, Experimental heat transfer 18, No. 3, 127-134 (2005)
[802] Corcione, M.: Correlating equations for free convection heat transfer from horizontal isothermal cylinders set in a vertical array, International journal of heat and mass transfer 48, No. 17, 3660-3673 (2005) · Zbl 1189.76522
[803] Cai, R.; Zhang, N.; Gou, C.: Explicit analytical solutions of axisymmetric laminar natural convection along vertical tubes, Progress in natural science 15, No. 3, 258-261 (2005) · Zbl 1115.76324
[804] Shafie, S.; Amin, N.; Pop, I.: The effect of g-jitter on double diffusion by natural convection from a sphere, International journal of heat and mass transfer 48, No. 21 – 22, 4526-4550 (2005) · Zbl 1189.76581
[805] Krysa, J.; Reuter, W.; Wragg, A. A.: Free convective mass transfer at circular thin disk electrodes with varying inclination, International journal of heat and mass transfer 48, No. 11, 2323-2332 (2005)
[806] Pham, M. V.; Plourde, F.; Kim, S. D.: Three-dimensional characterization of a pure thermal plume, Journal of heat transfer 127, No. 6, 624-636 (2005)
[807] Bouslimi, J.; Dehmani, L.: Experimental investigation of the thermal field of a turbulent plume guided by a cylinder - preliminary results, Experimental thermal and fluid science 29, No. 4, 477-484 (2005)
[808] Noto, K.; Mitsuhashi, S.: Buoyant flow characteristics with thermal cylinders in stably stratified air, Numerical heat transfer; part A: applications 47, No. 8, 763-785 (2005)
[809] Bunge, H. P.: Low plume excess temperature and high core heat flux inferred from non-adiabatic geotherms in internally heated mantle circulation models, Physics of the Earth and planetary interiors 153, No. 1 – 3, 3-10 (2005)
[810] Mishra, D. P.; Desai, T.: Numerical study of mixed convection heat transfer from thermal sources on a vertical surface, Modelling, measurement and control B 74, No. 1, 31-44 (2005)
[811] Evans, G.: Turbulent mixed convection from a large, high temperature, vertical flat surface, International journal of heat and fluid flow 26, No. 1, 1-11 (2005)
[812] Takhar, H. S.; Chamkha, A. J.; Nath, G.: Unsteady mixed convection on the stagnation-point flow adjacent to a vertical plate with a magnetic field, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 387-398 (2005)
[813] Nowak, W.; Stachel, A. A.: Heat transfer during transverse air flow around a cylinder, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 379-385 (2005)
[814] Ingel, L. K.: Mechanism of convective instability of a binary mixture, Journal of experimental and theoretical physics 101, No. 1, 156-159 (2005)
[815] Tashtoush, B.; Duwairi, H. M.: Transient mixed convection with internal heat generation and oscillating plate temperature, Acta mechanica 174, No. 3 – 4, 185-199 (2005) · Zbl 1067.76081
[816] Zellouf, Y.; Dupont, P.; Peerhossaini, H.: Heat and mass fluxes across density interfaces in a grid-generated turbulence, International journal of heat and mass transfer 48, No. 18, 3722-3735 (2005)
[817] Moawed, M.: Experimental investigation of natural convection from vertical and horizontal helicoidal pipes in HVAC applications, Energy conversion and management 46, No. 18 – 19, 2996-3013 (2005)
[818] Sharma, A.; Eswaran, V.: Effect of channel-confinement and aiding/opposing buoyancy on the two-dimensional laminar flow and heat transfer across a square cylinder, International journal of heat and mass transfer 48, No. 25 – 26, 5310-5322 (2005) · Zbl 1188.76198
[819] Adiutori, E. F.: An improved form for natural convection heat transfer correlations, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 374-378 (2005)
[820] He, Y.; Ma, L.; Huang, S.: Convection heat and mass transfer from a disk, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 766-772 (2005)
[821] Jasmine, H. A.; Gajjar, J. S. B.: Absolute and convective instabilities in the incompressible boundary layer on a rotating disk with temperature-dependent viscosity, International journal of heat and mass transfer 48, No. 5, 1022-1137 (2005) · Zbl 1189.76222
[822] Shevchuk, I. V.; Buschmann, M. H.: Rotating disk heat transfer in a fluid swirling as a forced vortex, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1112-1121 (2005)
[823] Kandlikar, S. G.; Kuan, W. K.; Mukherjee, A.: Experimental study of heat transfer in an evaporating meniscus on a moving heated surface, Journal of heat transfer 127, No. 3, 244-252 (2005)
[824] Lin, M. H.; Chen, C. T.: Study on the formation of goertler vortices in natural convection flow over a rotating concave surface, Applied mathematics and computation 169, No. 2, 778-796 (2005) · Zbl 1151.74405
[825] Torii, S.; Yang, W. J.: Numerical analysis of thermal-fluid flow between stationary and rotating parallel disks, Journal of flow visualization and image processing 12, No. 1, 95-104 (2005)
[826] Burns, J. R.; Jachuck, R. J. J.: Determination of liquid – solid mass transfer coefficients for a spinning disc reactor using a limiting current technique, International journal of heat and mass transfer 48, No. 12, 2540-2547 (2005)
[827] Lock, G. D.: Heat transfer measurements using liquid crystals in a preswirl rotating-disk system, Journal of engineering for gas turbines and power 127, No. 2, 375-382 (2005)
[828] Acharya, S.: Latticework (Vortex) cooling effectiveness: rotating channel experiments, Journal of turbomachinery 127, No. 3, 471-478 (2005)
[829] Al-Qahtani, M.; Chen, H. C.; Han, J. C.: Heat transfer prediction of rotating rectangular channels using Reynolds stress model, Journal of thermophysics and heat transfer 19, No. 1, 36-47 (2005)
[830] Fu, W. L.; Wright, L. M.; Han, J. C.: Heat transfer in two-pass rotating rectangular channels (AR=1:2 and AR=1:4) with smooth walls, Journal of heat transfer 127, No. 3, 265-277 (2005)
[831] Fu, W. L.; Wright, L. M.; Han, J. C.: Heat transfer in two-pass rotating rectangular channels (AR=1:2 and AR=1:4) with 45 deg angled rib turbulators, Journal of turbomachinery 127, No. 1, 164-174 (2005)
[832] Jin, L. F.; Tou, K. W.; Tso, C. P.: Effects of rotation on natural convection cooling from three rows of heat sources in a rectangular cavity, International journal of heat and mass transfer 48, No. 19 – 20, 3982-3994 (2005) · Zbl 1188.76252
[833] Lee, E.; Wright, L. M.; Han, J. C.: Heat transfer in rotating rectangular channels with V-shaped and angled ribs, Journal of thermophysics and heat transfer 19, No. 1, 48-56 (2005)
[834] Pallares, J.; Grau, F. X.; Davidson, L.: Pressure drop and heat transfer rates in forced convection rotating square duct flows at high rotation rates, Physics of fluids 17, No. 7, 1-11 (2005) · Zbl 1187.76397
[835] Sleiti, A. K.; Kapat, J. S.: Fluid flow and heat transfer in rotating curved duct at high rotation and density ratios, Journal of turbomachinery 127, No. 4, 659-667 (2005)
[836] Tyagi, M.; Acharya, S.: Large eddy simulations of flow and heat transfer in rotating ribbed duct flows, Journal of heat transfer 127, No. 5, 486-498 (2005)
[837] Wright, L. M.; Fu, W. L.; Han, J. C.: Influence of entrance geometry on heat transfer in rotating rectangular cooling channels (AR=4:1) with angled ribs, Journal of heat transfer 127, No. 4, 378-387 (2005)
[838] Beg, O. A.: Modelling convection heat transfer in a rotating fluid in a thermally-stratified high-porosity medium: numerical finite difference solutions, International journal of fluid mechanics research 32, No. 4, 383-401 (2005)
[839] Iacovides, H.: Experimental study of the flow and thermal development of a row cooling jets impinging on a rotating concave surface, Journal of turbomachinery 127, No. 1, 222-229 (2005)
[840] Boutarfa, R.; Harmand, S.: Local convective heat transfer for laminar and turbulent flow in a rotor-stator system, Experiments in fluids 38, No. 2, 209-221 (2005)
[841] Delaplace, G.; Guerin, R.; Leuliet, J. C.: Dimensional analysis for planetary mixer: modified power and Reynolds numbers, Aiche journal 51, No. 12, 3094-3100 (2005)
[842] King, M. P.; Wilson, M.: Numerical simulations of convective heat transfer in Rayleigh-Bénard convection and a rotating annulus, Numerical heat transfer; part A: applications 48, No. 6, 529-545 (2005)
[843] Lee, J. S.; Xu, X.; Pletcher, R. H.: Effects of wall rotation on heat transfer to annular turbulent flow: outer wall rotating, Journal of heat transfer 127, No. 8, 830-838 (2005)
[844] Teamah, M. A.; Sorour, M. M.; Saleh, R. A.: Mixed convection between two horizontal concentric cylinders when the cooled outer cylinder is rotating, AEJ - Alexandria engineering journal 44, No. 3, 347-360 (2005)
[845] Tzeng, S. C.: Flow structure in an inner rotating annular channel with ribbed wall cylinder, Japanese journal of applied physics, part 1: regular papers and short notes and review papers 44, No. 12, 8711-8715 (2005)
[846] Kumari, M.; Nath, G.: Transient rotating flow over a moving surface with a magnetic field, International journal of heat and mass transfer 48, No. 14, 2878-2885 (2005) · Zbl 1189.76717
[847] Lin, L. F.; Tou, K. W.; Tso, C. P.: Experimental and numerical studies on a rotating cavity with discrete heat sources with conjugate effects, Experimental heat transfer 18, No. 4, 259-277 (2005)
[848] Kul’chyts’kyi-Zhyhailo, R.: Contact stresses in rotating bodies with regard for heat generation and convective heat exchange, Materials science 41, No. 6, 734-742 (2005)
[849] Ponomarev, A. N.: An investigation of diffusion in droplets and of evaporation of volatile components into vacuum, High temperature 43, No. 6, 930-936 (2005)
[850] Ishihara, N.; Kida, S.: Excitation of polar thermal convection in a rotating spherical shell, Fluid dynamics research 36, No. 4 – 6, 427-440 (2005) · Zbl 1153.76416
[851] Niazmand, H.; Renksizbulut, M.: Flow past a spinning sphere with surface blowing and heat transfer, Journal of fluids engineering, transactions of the ASME 127, No. 1, 163-171 (2005)
[852] Ozturk, A.: Unsteady laminar mixed convection about a spinning sphere with a magnetic field, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 10, 864-874 (2005)
[853] Omi, Y.; Iwatsu, R.: Numerical study of swirling flows in a cylindrical container with co-/counter-rotating end disks under stable temperature difference, International journal of heat and mass transfer 48, No. 23 – 24, 4854-4866 (2005) · Zbl 1189.76719
[854] Sanchez-Alvarez, J. J.: Square patterns in rotating Rayleigh-Bénard convection, Physical review E - statistical, nonlinear, and soft matter physics 72, No. 3, 1-8 (2005)
[855] Shew, W. L.; Lathrop, D. P.: Liquid sodium model of geophysical core convection, Physics of the Earth and planetary interiors 153, No. 1 – 3, 136-149 (2005)
[856] Yang, D.; Wang, L.: Two finite-element schemes for steady convective heat transfer with system rotation and variable thermal properties, Numerical heat transfer, part B: fundamentals 47, No. 4, 343-360 (2005)
[857] Lin, J. L.; Yang, C. S.: Heat transfer analysis of charring ablators under aerodynamic heating, Aircraft engineering and aerospace technology 77, No. 3, 214-221 (2005)
[858] Lin, W. S.: Steady ablation on the surface of a two-layer composite, International journal of heat and mass transfer 48, No. 25 – 26, 5504-5519 (2005) · Zbl 1188.76270
[859] Bellettre, J.: Studies of the transpiration cooling through a sintered stainless steel plate, Experimental heat transfer 18, No. 1, 33-44 (2005)
[860] Celere, M.; Gostoli, C.: Heat and mass transfer in osmotic distillation with brines, glycerol and glycerol-salt mixtures, Journal of membrane science 257, No. 1 – 2, 99-110 (2005)
[861] Fujita, I.; Hihara, E.: Heat and mass transfer coefficients of falling-film absorption process, International journal of heat and mass transfer 48, No. 13, 2779-2786 (2005) · Zbl 1189.76062
[862] Fukuyo, K.: Stability and accuracy of power-series method applied to transpiration cooling problems, Numerical heat transfer, part B: fundamentals 48, No. 5, 445-457 (2005)
[863] Garcia, R. A.; Cloutier, A.: Characterization of heat and mass transfer in the mat during the hot pressing of MDF panels, Wood and fiber science 37, No. 1, 23-41 (2005)
[864] Kurpaska, S.: Simulation of heat and moisture transfer in the greenhouse substrate due to a heating system by buried pipes, Biosystems engineering 90, No. 1, 63-74 (2005)
[865] Lee, J.; Kim, T. J.; Kim, M. H.: Experimental study on the heat and mass transfer of teflon-coated tubes for the latent heat recovery, Heat transfer engineering 26, No. 2, 28-37 (2005)
[866] Quan, D.: Cooling performance of an impingement cooling device combined with pins, Journal of thermal science 14, No. 1, 56-61 (2005)
[867] Termpiyakul, P.; Jiraratananon, R.; Srisurichan, S.: Heat and mass transfer characteristics of a direct contact membrane distillation process for desalination, Desalination 177, No. 1 – 3, 133-141 (2005)
[868] Van Limpt, H.: Mass transfer relations for transpiration evaporation experiments, International journal of heat and mass transfer 48, No. 19 – 20, 4265-4281 (2005) · Zbl 1188.76264
[869] Kaeser, M.; Pritchard, C. L.: Heat transfer at the surface of sieve trays, Chemical engineering research and design 83, No. 8A, 1038-1043 (2005)
[870] Kazachkov, I. V.; Palm, B.: Analysis of annular two-phase flow dynamics under heat transfer conditions, Journal of enhanced heat transfer 12, No. 1, 37-58 (2005)
[871] Sargison, J. E.: Flow visualisation of the external flow from a converging slot-hole film-cooling geometry, Experiments in fluids 38, No. 3, 304-318 (2005)
[872] Yuen, C. H. N.; Martinez-Botas, R. F.: Film cooling characteristics of rows of round holes at various streamwise angles in a crossflow: part I. Effectiveness, International journal of heat and mass transfer 48, No. 23 – 24, 4995-5016 (2005)
[873] Yuen, C. H. N.; Martinez-Botas, R. F.: Film cooling characteristics of rows of round holes at various streamwise angles in a crossflow: part II. Heat transfer coefficients, International journal of heat and mass transfer 48, No. 23 – 24, 5017-5035 (2005)
[874] Bourouis, M.: Absorption of water vapour in the falling film of water-(LiBr + lii + lino3 + licl) in a vertical tube at air-cooling thermal conditions, International journal of thermal sciences 44, No. 5, 491-498 (2005)
[875] Bunker, R. S.: A review of shaped hole turbine film-cooling technology, Journal of heat transfer 127, No. 4, 441-453 (2005)
[876] Gambaryan-Roisman, T.; Alexeev, A.; Stephan, P.: Effect of the microscale wall topography on the thermocapillary convection within a heated liquid film, Experimental thermal and fluid science 29, No. 7 SPEC. ISS, 765-772 (2005)
[877] Jiang, W. Y.; Lin, S. P.: Enhancement or suppression of instability in a two-layered liquid film flow, Physics of fluids 17, No. 5, 1-8 (2005) · Zbl 1187.76247
[878] Junker, S. T.; Birkmire, R. W.; Iii, F. J. Doyle: Mass and heat transfer modeling of a physical vapor deposition effusion source, Aiche journal 51, No. 3, 878-894 (2005)
[879] Kohli, A.; Bogard, D. G.: Turbulent transport in film cooling flows, Journal of heat transfer 127, No. 5, 513-520 (2005)
[880] Kunugi, T.; Kino, C.: DNS of falling film structure and heat transfer via Mars method, Computers and structures 83, No. 6 – 7, 455-462 (2005)
[881] Sahoo, N.: Film cooling effectiveness on a large angle blunt cone flying at hypersonic speed, Physics of fluids 17, No. 3 (2005) · Zbl 1187.76457
[882] Taslim, M. E.; Khanicheh, A.: Film effectiveness downstream of a row of compound angle film holes, Journal of heat transfer 127, No. 4, 434-440 (2005)
[883] Wang, M.; Liu, C.; Zhou, Q.: Experimental and analytical study on falling film absorption in smooth and chute low-ribbed tubes, Heat transfer - asian research 34, No. 1, 29-39 (2005)
[884] Wee, S. K.; Kihm, K. D.; Hallinan, K. P.: Effects of the liquid polarity and the wall slip on the heat and mass transport characteristics of the micro-scale evaporating transition film, International journal of heat and mass transfer 48, No. 2, 265-278 (2005) · Zbl 1121.76499
[885] Yoon, J. I.: Heat and mass transfer characteristics of a helical absorber using libr and libr + lii + lino3 + licl solutions, International journal of heat and mass transfer 48, No. 10, 2102-2109 (2005)
[886] Zhang, J.; Chang, H.: The interior heat transfer characteristics of gas turbine blade due to sparse film cooling holes, Heat transfer - asian research 34, No. 3, 197-206 (2005)
[887] Guerra, D. R. S.; Su, J.; Freire, A. P. Silva: The near wall behavior of an impinging jet, International journal of heat and mass transfer 48, No. 14, 2829-2840 (2005)
[888] Hebert, R.: Impingement heat transfer, part II: Effect of streamwise pressure gradient, Journal of thermophysics and heat transfer 19, No. 1, 66-71 (2005)
[889] Hsieh, J. C.; Lin, T. F.: Effects of jet-to-disk separation distance on the characteristics of mixed convective vortex flow in an impinging air jet confined in a cylindrical chamber, International journal of heat and mass transfer 48, No. 3 – 4, 511-525 (2005)
[890] Huang, X. Q.; Leung, C. W.; Chan, C. K.: Heat transfer of premixed butane/air impinging circular flame jet with induced swirl, Transactions Hong Kong institution of engineers 12, No. 3, 21-24 (2005)
[891] Shi, Y. L.; Mujumdar, A. S.; Ray, M. B.: Heat transfer in multiple-turbulent-slot impinging jets of gas-particle suspensions, Numerical heat transfer; part A: applications 47, No. 2, 147-164 (2005)
[892] Shuja, S. Z.; Yilbas, B. S.; Budair, M. O.: Influence of conical and annular nozzle geometric configurations on flow and heat transfer characteristics due to flow impingement onto a flat plate, Numerical heat transfer; part A: applications 48, No. 9, 917-939 (2005)
[893] Shuja, S. Z.; Yilbas, B. S.; Budair, M. O.: Flow impingement onto a flat plate with limited heated area in relation to laser gas assisted processing: influence of nozzle geometry on heat transfer rates, International journal of numerical methods for heat and fluid flow 15, No. 4, 363-378 (2005)
[894] Thielen, L.: Predictions of flow and heat transfer in multiple impinging jets with an elliptic-blending second-moment closure, International journal of heat and mass transfer 48, No. 8, 1583-1598 (2005) · Zbl 1189.76279
[895] Tuttle, S. G.; Webb, B. W.; Mcquay, M. Q.; Results, Convective Heat Transfer From A. Partially Premixed Impinging Flame Jet. Part Ii: Time-Resolved: International journal of heat and mass transfer, International journal of heat and mass transfer 48, No. 7, 1252-1266 (2005)
[896] Wang, S. J.; Mujumdar, A. S.: A comparative study of five low Reynolds number k-&z.epsiv; models for impingement heat transfer, Applied thermal engineering 25, No. 1, 31-44 (2005)
[897] Wang, T.; Gaddis, J. L.; Li, X.: Mist/steam heat transfer of multiple rows of impinging jets, International journal of heat and mass transfer 48, No. 25 – 26, 5179-5191 (2005)
[898] Wen, M. Y.: Flow structures and heat transfer of swirling jet impinging on a flat surface with micro-vibrations, International journal of heat and mass transfer 48, No. 3 – 4, 545-560 (2005)
[899] Yu, M. S.; Kim, B. G.; Cho, H. H.: Heat transfer on flat surface impinged by an underexpanded sonic jet, Journal of thermophysics and heat transfer 19, No. 4, 448-454 (2005)
[900] Zhou, D. W.; Lee, S. J.: Effect of mesh screen on heat transfer enhancement of impinging jet, Journal of enhanced heat transfer 12, No. 1, 101-119 (2005)
[901] Zuckerman, N.; Lior, N.: Impingement heat transfer: correlations and numerical modeling, Journal of heat transfer 127, No. 5, 544-552 (2005)
[902] Angioletti, M.; Nino, E.; Ruocco, G.: CFD turbulent modelling of jet impingement and its validation by particle image velocimetry and mass transfer measurements, International journal of thermal sciences 44, No. 4, 349-356 (2005)
[903] Chen, Y. C.: Theoretical study on impingement heat transfer with single-phase free-surface slot jets, International journal of heat and mass transfer 48, No. 16, 3381-3386 (2005) · Zbl 1189.76149
[904] Chung, Y. S.; Lee, D. H.; Ligrani, P. M.: Jet impingement cooling of chips equipped with cylindrical pedestal profile fins, Journal of electronic packaging, transactions of the ASME 127, No. 2, 106-111 (2005)
[905] Coussirat, M.: Computational fluid dynamics modeling of impinging gas-jet systems: II. Application to an industrial cooling system device, Journal of fluids engineering, transactions of the ASME 127, No. 4, 704-713 (2005)
[906] Dano, B. P. E.; Liburdy, J. A.; Kanokjaruvijit, K.: Flow characteristics and heat transfer performances of a semi-confined impinging array of jets: effect of nozzle geometry, International journal of heat and mass transfer 48, No. 3 – 4, 691-701 (2005)
[907] El-Gabry, L. A.; Kaminski, D. A.: Experimental investigation of local heat transfer distribution on smooth and roughened surfaces under an array of angled impinging jets, Journal of turbomachinery 127, No. 3, 532-544 (2005)
[908] Fabbri, M.; Dhir, V. K.: Optimized heat transfer for high power electronic cooling using arrays of microjets, Journal of heat transfer 127, No. 7, 760-769 (2005)
[909] Fenot, M.; Vullierme, J. J.; Dorignac, E.: Local heat transfer due to several configurations of circular air jets impinging on a flat plate with and without semi-confinement, International journal of thermal sciences 44, No. 7, 665-675 (2005)
[910] Fornalik, E.; Szmyd, J. S.: Turbulent heat transfer in a confined jet, Progress in computational fluid dynamics 5, No. 3 – 5, 136-143 (2005) · Zbl 1189.76024
[911] Fregeau, M.; Saeed, F.; Paraschivoiu, I.: Numerical heat transfer correlation for array of hot-air jets impinging on 3-dimensional concave surface, Journal of aircraft 42, No. 3, 665-670 (2005)
[912] Gao, Z.; Mei, V. C.; Tomlinson, J. J.: Theoretical analysis of dehumidification process in a desiccant wheel, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 1033-1042 (2005)
[913] Gori, F.: Cooling of a finned cylinder by a jet flow of air, Journal of heat transfer 127, No. 12, 1416-1421 (2005)
[914] Hou, S. S.; Ko, Y. C.: Influence of oblique angle and heating height on flame structure, temperature field and efficiency of an impinging laminar jet flame, Energy conversion and management 46, No. 6, 941-958 (2005)
[915] Jang, S. P.; Kim, S. J.: Fluid flow and thermal characteristics of a microchannel heat sink subject to an impinging air jet, Journal of heat transfer 127, No. 7, 770-779 (2005)
[916] Kanokjaruvijit, K.; Martinez-Botas, R. F.: Parametric effects on heat transfer of impingement on dimpled surface, Journal of turbomachinery 127, No. 2, 287-296 (2005)
[917] Kanokjaruvijit, K.; Martinez-Botas, R. F.: Jet impingement on a dimpled surface with different crossflow schemes, International journal of heat and mass transfer 48, No. 1, 161-170 (2005)
[918] Kim, S. Y.; Lee, M. H.; Lee, K. S.: Heat removal by aluminum-foam heat sinks in a multi-air jet impingement, IEEE transactions on components and packaging technologies 28, No. 1, 142-148 (2005)
[919] Kocer, D.; Karwe, M. V.: Thermal transport in a multiple jet impingement oven, Journal of food process engineering 28, No. 4, 378-396 (2005)
[920] Kwok, L. C.; Leung, C. W.; Cheung, C. S.: Heat transfer characteristics of an array of impinging pre-mixed slot flame jets, International journal of heat and mass transfer 48, No. 9, 1727-1738 (2005)
[921] Li, H. Y.; Chen, K. Y.: Thermal-fluid characteristics of pin-fin heat sinks cooled by impinging jet, Journal of enhanced heat transfer 12, No. 2, 189-201 (2005)
[922] Li, X.; Gaddis, J. L.; Wang, T.: Multiple flow patterns and heat transfer in confined jet impingement, International journal of heat and fluid flow 26, No. 5, 746-754 (2005)
[923] Lou, Z. Q.; Mujumdar, A. S.; Yap, C.: Effects of geometric parameters on confined impinging jet heat transfer, Applied thermal engineering 25, No. 17 – 18, 2687-2697 (2005)
[924] Merci, B.; Mesbah, M. P. E.; Baughn, J. W.: Experimental and numerical study of turbulent heat transfer on a cylindrical pedestal, International journal of heat and fluid flow 26, No. 2, 233-243 (2005)
[925] Moore, P. G.; Iii, H. N. Jones; Lambrakos, S. G.: An inverse heat transfer model of thermal degradation within multifunctional tensioned cable structures, Journal of materials engineering and performance 14, No. 1, 112-118 (2005)
[926] Olsson, E. E. M.; Ahrné, L. M.; Trägårdh, A. C.: Flow and heat transfer from multiple slot air jets impinging on circular cylinders, Journal of food engineering 67, No. 3, 273-280 (2005)
[927] Oyakawa, K.: Study on flow and heat transfer of multiple impingement jets, Heat transfer - asian research 34, No. 6, 419-431 (2005)
[928] Parsons, J. A.; Han, J. C.: Jet-impingement heat transfer in rotating channels with staggered extraction flow, Journal of thermophysics and heat transfer 19, No. 2, 156-162 (2005)
[929] Patil, V. A.; Narayanan, V.: Spatially resolved heat transfer rates in an impinging circular microscale jet, Microscale thermophysical engineering 9, No. 2, 183-197 (2005)
[930] Poh, H. J.; Kumar, K.; Mujumdar, A. S.: Heat transfer from a pulsed laminar impinging jet, International communications in heat and mass transfer 32, No. 10, 1317-1324 (2005)
[931] Ramanujachari, V.: Heat transfer due to supersonic flow impingement on a vertical plate, International journal of heat and mass transfer 48, No. 17, 3707-3712 (2005)
[932] Safronova, E. V.; Abaev, G. N.: Mass transfer in a jet device, Journal of engineering physics and thermophysics 78, No. 6, 1133-1137 (2005)
[933] Salamah, S. A.; Kaminski, D. A.: Modeling of turbulent heat transfer from an array of submerged jets impinging on a solid surface, Numerical heat transfer; part A: applications 48, No. 4, 315-337 (2005)
[934] Senda, M.: Heat transfer and fluid flow characteristics in a swirling impinging jet, Heat transfer - asian research 34, No. 5, 324-335 (2005)
[935] Tuttle, S. G.; Webb, B. W.; Mcquay, M. Q.: Convective heat transfer from a partially premixed impinging flame jet. Part I: Time-averaged results, International journal of heat and mass transfer 48, No. 7, 1236-1251 (2005)
[936] Wang, T.; Lin, M.; Bunker, R. S.: Flow and heat transfer of confined impingement jets cooling using a 3-D transient liquid crystal scheme, International journal of heat and mass transfer 48, No. 23 – 24, 4887-4903 (2005)
[937] Yan, W. M.: Experimental study of impinging heat transfer along rib-roughened walls by using transient liquid crystal technique, International journal of heat and mass transfer 48, No. 12, 2420-2428 (2005)
[938] Chambers, A. C.: The effect of initial cross flow on the cooling performance of a narrow impingement channel, Journal of heat transfer 127, No. 4, 358-365 (2005)
[939] Diez, F. J.; Bernal, L. P.; Faeth, G. M.: Self-preserving mixing properties of steady round nonbuoyant turbulent jets in uniform crossflows, Journal of heat transfer 127, No. 8, 877-887 (2005)
[940] A. Fayoux et al., Experimental and numerical determination of heat release in counterflow premixed laminar flames. in Proceedings of the Combustion Institute. 2005.
[941] Fabbri, M.; Jiang, S.; Dhir, V. K.: A comparative study of cooling of high power density electronics using sprays and microjets, Journal of heat transfer 127, No. 1, 38-48 (2005)
[942] Hamed, M. S.; Akmal, M.: Determination of heat transfer rates in an industry-like spray quench system using multiple impinging water jets, International journal of materials and product technology 24, No. 1 – 4, 184-198 (2005)
[943] Kanna, P. R.; Das, M. K.: Conjugate heat transfer study of two-dimensional laminar incompressible offset jet flows, Numerical heat transfer; part A: applications 48, No. 7, 671-691 (2005)
[944] Mozumder, A. K.; Monde, M.; Woodfield, P. L.: Delay of wetting propagation during jet impingement quenching for a high temperature surface, International journal of heat and mass transfer 48, No. 25 – 26, 5395-5407 (2005)
[945] See, S. K.; Chung, H. M.; Lee, C. W.: Analysis of water cooling mechanism by impinging jet for hot rolled wire rod, ISIJ international 45, No. 3, 356-365 (2005)
[946] Silverman, I.: High heat flux accelerator targets cooling with liquid-metal jet impingement, Nuclear instruments and methods in physics research, section B: beam interactions with materials and atoms 241, No. 1 – 4, 1009-1013 (2005)
[947] Casamirra, M.: Rewetting of a hot vertical surface by liquid sprays, Experimental thermal and fluid science 29, No. 7 SPEC. ISS, 885-891 (2005)
[948] Celata, G. P.: Experimental result on rewetting of hot surfaces by droplet impingement, Experimental thermal and fluid science 29, No. 3, 275-285 (2005)
[949] Dreitser, G. A.; Lobanov, I. E.: The limit enhancement of heat transfer for coolants in the form of a dropping liquid with variable thermophysical properties, Thermal engineering (English translation of teploenergetika) 52, No. 3, 191-196 (2005)
[950] Ge, Y.; Fan, L. S.: Three-dimensional simulation of impingement of a liquid droplet on a flat surface in the leidenfrost regime, Physics of fluids 17, No. 2, 1-20 (2005) · Zbl 1187.76177
[951] Horacek, B.; Kiger, K. T.; Kim, J.: Single nozzle spray cooling heat transfer mechanisms, International journal of heat and mass transfer 48, No. 8, 1425-1438 (2005)
[952] Imaoka, R. T.; Sirignano, W. A.: Transient vaporization and burning in dense droplet arrays, International journal of heat and mass transfer 48, No. 21 – 22, 4354-4366 (2005) · Zbl 1189.76634
[953] Imaoka, R. T.; Sirignano, W. A.: A generalized analysis for liquid-fuel vaporization and burning, International journal of heat and mass transfer 48, No. 21 – 22, 4342-4353 (2005) · Zbl 1189.76633
[954] Lee, S.: Heat transfer characteristics during mist cooling on a heated cylinder, Heat transfer engineering 26, No. 8, 24-31 (2005)
[955] Murav’ev, A. G.: Mathematical modeling of heat and mass transfer in gas absorption on a drop of a volatile absorbent, Theoretical foundations of chemical engineering 39, No. 4, 379-384 (2005)
[956] Pautsch, A. G.; Shedd, T. A.: Spray impingement cooling with single- and multiple-nozzle arrays. Part I: Heat transfer data using FC-72, International journal of heat and mass transfer 48, No. 15, 3167-3175 (2005)
[957] Pope, D. N.; Gogos, G.: Numerical simulation of fuel droplet extinction due to forced convection, Combustion and flame 142, No. 1 – 2, 89-106 (2005)
[958] Subramanian, R.; Jog, M. A.: Enhancement of heat transfer by an electric field for a drop translating at intermediate Reynolds number, Journal of heat transfer 127, No. 10, 1087-1095 (2005)
[959] Terekhov, V. I.; Pakhomov, M. A.: The thermal efficiency of near-wall gas-droplets screens. Part I. Numerical modeling, International journal of heat and mass transfer 48, No. 9, 1747-1759 (2005) · Zbl 1189.76662
[960] Terekhov, V. I.: Thermal efficiency of near-wall gas-droplet screens II. Experimental study and comparison with numerical results, International journal of heat and mass transfer 48, No. 9, 1760-1771 (2005)
[961] Agnelli, M. E.; Marani, C. M.; Mascheroni, R. H.: Modelling of heat and mass transfer during (osmo) dehydrofreezing of fruits, Journal of food engineering 69, No. 4, 415-424 (2005)
[962] Berghel, J.: The gas-to-particle heat transfer and hydrodynamics in spouted bed drying of sawdust, Drying technology 23, No. 5, 1027-1041 (2005)
[963] Birchal, V. S.; Passos, M. L.: Modeling and simulation of milk emulsion drying in spray dryers, Brazilian journal of chemical engineering 22, No. 2, 293-302 (2005)
[964] Boldor, D.: A model for temperature and moisture distribution during continuous microwave drying, Journal of food process engineering 28, No. 1, 68-87 (2005)
[965] Chemkhi, S.; Zagrouba, F.; Bellagi, A.: Modelling and simulation of drying phenomena with rheological behaviour, Brazilian journal of chemical engineering 22, No. 2, 153-163 (2005)
[966] Da Costa, V. A. F.; Da Silva, F. N.; Ruivo, C. R.: An alternative approach to the inversion temperature, Drying technology 23, No. 9 – 11, 1783-1796 (2005)
[967] Hidayat, M.: Heat and mass transfer effects in a U-bend in pneumatic drying, Doktorsavhandlingar vid chalmers tekniska hogskola, No. 2294 (2005)
[968] Hidayat, M.; Rasmuson, A.: Some aspects on gas – solid flow in a U-bend: numerical investigation, Powder technology 153, No. 1, 1-12 (2005)
[969] Huang, C. C.; Yan, W. M.; Jang, J. H.: Laminar mixed convection heat and mass transfer in vertical rectangular ducts with film evaporation and condensation, International journal of heat and mass transfer 48, No. 9, 1772-1784 (2005) · Zbl 1189.76485
[970] Jumah, R.: Modelling and simulation of continuous and intermittent radio frequency-assisted fluidized bed drying of grains, Food and bioproducts processing 83, No. 3C, 203-210 (2005)
[971] Lewis, R. W.; Malan, A. G.: Continuum thermodynamic modeling of drying capillary particulate materials via an edge-based algorithm, Computer methods in applied mechanics and engineering 194, No. 18 – 20, 2043-2057 (2005) · Zbl 1091.76068
[972] Longo, G. A.; Gasparella, A.: Experimental and theoretical analysis of heat and mass transfer in a packed column dehumidifier/regenerator with liquid desiccant, International journal of heat and mass transfer 48, No. 25-26, 5240-5254 (2005)
[973] Nikitenko, N. I.; Snezhkin, Y. F.; Sorokovaya, N. N.: Mathematical simulation of heat and mass transfer, phase conversions, and shrinkage for optimization of the process of drying of thermolabile materials, Journal of engineering physics and thermophysics 78, No. 1, 75-89 (2005)
[974] Prakash, O.; Tiwari, G. N.: Empirical expressions for convective and evaporative heat transfer coefficients for the drying of concentrated sugar-cane juice, International journal of ambient energy 26, No. 1, 45-55 (2005)
[975] Ramos, I. N.; Brandäo, T. R. S.; Silva, C. L. M.: Integrated approach on solar drying, pilot convective drying and microstructural changes, Journal of food engineering 67, No. 1 – 2, 195-203 (2005)
[976] Sfredo, M. A.; Finzer, J. R. D.; Limaverde, J. R.: Heat and mass transfer in coffee fruits drying, Journal of food engineering 70, No. 1, 15-25 (2005)
[977] Shubin, G. S.: Development of certain aspects of the A. V. luikov heat- and mass-transfer theory, Journal of engineering physics and thermophysics 78, No. 4, 733-738 (2005)
[978] Sun, H. J.; You, S. J.; Tu, G. B.: Experimental investigation of heat and mass transfer performance of metal fill in air-conditioning, Tianjin daxue xuebao (Ziran kexue yu gongcheng jishu ban)/journal of Tianjin university science and technology 38, No. 6, 561-564 (2005)
[979] Sun, J.; Besant, R. W.: Heat and mass transfer during silica gel-moisture interactions, International journal of heat and mass transfer 48, No. 23 – 24, 4953-4962 (2005)
[980] Zhao, W.; Kumar, K.; Mujumdar, A. S.: Impingement heat transfer for a cluster of laminar impinging jets issuing from noncircular nozzles, Drying technology 23, No. 1 – 2 SPEC. ISS, 105-130 (2005)
[981] Abiev, R. S.: A new form of the heat- and mass-transfer and fluid-flow equations, Theoretical foundations of chemical engineering 39, No. 2, 184-189 (2005)
[982] Abo-Eldahab, E. M.: Hydrodymagnetic three-dimensional flow over a stretching surface with heat and mass transfer, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 734-743 (2005)
[983] Afify, A. A.; Aboeldahab, E. M.; Mohamed, E. S.: Similarity analysis in magnetohydrodynamics: Hall effects on forced convective heat and mass transfer of non-Newtonian power law fluids past a semi-infinite vertical flat plate, Acta mechanica 177, No. 1 – 4, 71-87 (2005) · Zbl 1085.76062
[984] Bedeaux, D.; Kjelstrup, S.: Heat, mass and charge transport, and chemical reactions at surfaces, International journal of thermodynamics 8, No. 1, 25-41 (2005)
[985] Bellache, O.; Ouzzane, M.; Galanis, N.: Numerical prediction of ventilation patterns and thermal processes in ice rinks, Building and environment 40, No. 3, 417-426 (2005)
[986] Bohn, D.; Heuer, T.; Kusterer, K.: Conjugate flow and heat transfer investigation of a turbo charger, Journal of engineering for gas turbines and power 127, No. 3, 663-669 (2005)
[987] Chacha, M.; Saghir, M. Z.: Solutal-thermo-diffusion convection in a vibrating rectangular cavity, International journal of thermal sciences 44, No. 1, 1-10 (2005)
[988] Chermyaninov, I. V.; Chernyak, V. G.; Khinkina, E. P.: Light-induced heat and mass transfer of gas in a plane channel, High temperature 43, No. 1, 131-140 (2005)
[989] Courret, G.; Ata-Caesar, D.; Egolf, P.: Heat exchange by mass transfer in isothermal environment: a two-parameters non-linear model, International journal of heat and mass transfer 48, No. 25-26, 5408-5416 (2005) · Zbl 1188.76251
[990] Di Benedetto, A.: Heat and mass fluxes in the presence of fast exothermic superficial reaction, Combustion theory and modelling 9, No. 3, 463-477 (2005) · Zbl 1079.80001
[991] Dubewar, A. V.; Soundalgekar, V. M.: Mass transfer effects on transient free convection flow past an infinite vertical plate with periodic heat flux, Journal of the chinese institute of chemical engineers 36, No. 3, 301-309 (2005) · Zbl 1207.76117
[992] Dutour, S.: Modeling of heat and mass transfer coupling with gas-solid reaction in a sorption heat pump cooled by a two-phase closed thermosyphon, Chemical engineering science 60, No. 15, 4093-4104 (2005)
[993] Elalimi, S.; Orfi, J.; Ben Nasrallah, S.: A time dependent transition phenomenon of mixed convection heat and mass transfer in a vertical duct with sudden expansion, International journal of heat and technology 23, No. 2, 165-172 (2005)
[994] Elperin, T.; Fominykh, A.: Mass and heat transfer during solid sphere dissolution in a non-uniform fluid flow, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 442-448 (2005)
[995] Erdogdu, F.: Mathematical approaches for use of analytical solutions in experimental determination of heat and mass transfer parameters, Journal of food engineering 68, No. 2, 233-238 (2005)
[996] Fernandez-Seara, J.: Ammonia-water absorption in vertical tubular absorbers, International journal of thermal sciences 44, No. 3, 277-288 (2005)
[997] Garyaev, A. B.: Study of heat-carriers temperature and enthalpy distributions in condensing-type surface heat-recovery units, Thermal engineering (English translation of teploenergetika) 52, No. 7, 573-577 (2005)
[998] Ginkin, V.: Mathematical model of heat and mass transfer during crystal growth process including cluster model of a melt constitution, Numerical heat transfer, part B: fundamentals 47, No. 5, 459-472 (2005)
[999] Goel, N.; Goswami, D. Y.: A compact falling film absorber, Journal of heat transfer 127, No. 9, 957-965 (2005)
[1000] Goel, N.; Goswami, D. Y.: Analysis of a counter-current vapor flow absorber, International journal of heat and mass transfer 48, No. 7, 1283-1292 (2005) · Zbl 1189.76626
[1001] Gubaidullin, A. A.; Sannikov, I. N.: The dynamics and heat and mass transfer of a vapor bubble containing a hot particle, High temperature 43, No. 6, 922-929 (2005)
[1002] Hartung, M.; Köhler, W.: The role of heat-conducting walls in the measurement of heat and mass transport in transient grating experiments, European physical journal E 17, No. 2, 165-179 (2005)
[1003] Hua, Y.: 3D modelling of radiative heat transfer in circulating fluidized bed combustors: influence of the particulate composition, International journal of heat and mass transfer 48, No. 6, 1145-1154 (2005) · Zbl 1189.76749
[1004] Jeong, S.; Garimella, S.: Optimal design of compact horizontal tube libr/water absorbers, HVAC and R research 11, No. 1, 27-44 (2005)
[1005] Juncu, G.: Unsteady forced convection heat/mass transfer from a flat plate, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1095-1102 (2005)
[1006] Juncu, G.: Conjugate heat/mass transfer from a circular cylinder with an internal heat/mass source in laminar crossflow at low Reynolds numbers, International journal of heat and mass transfer 48, No. 2, 419-424 (2005) · Zbl 1121.76317
[1007] Kandasamy, R.; Periasamy, K.; Prabhu, K. K. S.: Effects of chemical reaction, heat and mass transfer along a wedge with heat source and concentration in the presence of suction or injection, International journal of heat and mass transfer 48, No. 7, 1388-1394 (2005) · Zbl 1189.76752
[1008] Kiyota, M.; Morioka, I.; Matsuura, D.: Steam absorption process of water/libr system inside vertical small bore pipes, Heat transfer - asian research 34, No. 1, 18-28 (2005)
[1009] Kupiec, K.; Georgiou, A.: Analysis of thermal effects in a spherical adsorbent pellet, International journal of heat and mass transfer 48, No. 23 – 24, 5047-5057 (2005) · Zbl 1189.76576
[1010] Lee, C. H.: Numerical and experimental study of falling film in ammonia absorption refrigeration systems, Journal of chemical engineering of Japan 38, No. 7, 520-527 (2005)
[1011] Lu, Y.; Schaefer, L.; Li, P.: Numerical study of a flat-tube high power density solid oxide fuel cell: part I. Heat/mass transfer and fluid flow, Journal of power sources 140, No. 2, 331-339 (2005)
[1012] Mansoori, Z.: Inter-particle heat transfer in a riser of gas-solid turbulent flows, Powder technology 159, No. 1, 35-45 (2005)
[1013] Markatos, N. C.: Membrane reactor modelling: a comparative study to evaluate the role of combined mass and heat dispersion in large-scale adiabatic membrane modules, Chemical engineering research and design 83, No. 10 A, 1171-1178 (2005)
[1014] Motulevich, V. P.: Heat and mass transfer in the presence of heterogeneous chemical reactions, Heat transfer research 36, No. 5, 397-402 (2005)
[1015] Msaad, Y.: A numerical methodology for coupled diffusive transfer modeling: application to concrete subjected to heating, Numerical heat transfer, part B: fundamentals 48, No. 1, 89-101 (2005)
[1016] Puzach, S. V.; Puzach, V. G.: Mathematical modeling of heat and mass transfer in fire in a compartment of complex geometry, Heat transfer research 36, No. 7, 585-600 (2005)
[1017] Puzach, S. V.; Puzach, V. G.; Gornostaev, R. P.: Features of the heat and mass transfer in a fire within a building of complex geometry, Journal of engineering physics and thermophysics 78, No. 3, 430-439 (2005)
[1018] Puzach, S. V.; Puzach, V. G.; Kazennov, V. M.: Certain regularities of heat and mass transfer through an open aperture in a fire in the compartment, Heat transfer research 36, No. 7, 615-622 (2005)
[1019] Seddeek, M. A.: Finite-element method for the effects of chemical reaction, variable viscosity, thermophoresis and heat generation/absorption on a boundary-layer hydromagnetic flow with heat and mass transfer over a heat surface, Acta mechanica 177, No. 1 – 4, 1-18 (2005) · Zbl 1085.76040
[1020] Sobin, V. M.; Dashkov, G. V.: Heat and mass transfer under cooling of flowing water sheets by an air counterflow, Journal of engineering physics and thermophysics 78, No. 4, 651-661 (2005)
[1021] Xu, Q.; Luo, X.: Numerical solution of a two-dimensional simulation on heat and mass transfer through cloth, Applied mathematics and computation 171, No. 2, 843-852 (2005) · Zbl 1090.65104
[1022] Yang, D. K.; Lee, K. S.: Modeling of frosting behavior on a cold plate, International journal of refrigeration 28, No. 3, 396-402 (2005)
[1023] Yariv, E.: Displacing small particles by unsteady temperature fields, Journal of fluid mechanics 530, 125-134 (2005) · Zbl 1070.76046
[1024] Yeoh, G. H.; Tu, J. Y.: Thermal-hydrodynamic modeling of bubbly flows with heat and mass transfer, Aiche journal 51, No. 1, 8-27 (2005)
[1025] Yoon, J. I.: Numerical study on heat and mass transfer characteristic of plate absorber, Applied thermal engineering 25, No. 14 – 15, 2219-2235 (2005)
[1026] Som, S. K.; Mondal, S. S.; Dash, S. K.: Energy and exergy balance in the process of pulverized coal combustion in a tubular combustor, Journal of heat transfer 127, No. 12, 1322-1333 (2005)
[1027] Rudenko, S. G.: Numerical study of combined heat transfer in initial sections of high-temperature outlet channels and nozzles with variable and strong injection, Heat transfer research 36, No. 8, 663-676 (2005)
[1028] Balasubramanian, S. K.; Coger, R. N.: Heat and mass transfer during the cryopreservation of a bioartificial liver device: a computational model, ASAIO journal 51, No. 3, 184-193 (2005)
[1029] Chopra, R.: Method for MRI-guided conformal thermal therapy of prostate with planar transurethral ultrasound heating applicators, Physics in medicine and biology 50, No. 21, 4957-4975 (2005)
[1030] Chua, K. J.: On the study of the temperature distribution within a human eye subjected to a laser source, International communications in heat and mass transfer 32, No. 8, 1057-1065 (2005)
[1031] Dua, R.; Chakraborty, S.: A novel modeling and simulation technique of photo-thermal interactions between lasers and living biological tissues undergoing multiple changes in phase, Computers in biology and medicine 35, No. 5, 447-462 (2005)
[1032] Franco, W.: Radial and temporal variations in surface heat transfer during cryogen spray cooling, Physics in medicine and biology 50, No. 2, 387-397 (2005)
[1033] Gentry, K. L.: Finite-element analysis of temperature rise and lesion formation from catheter ultrasound ablation transducers, IEEE transactions on ultrasonics, ferroelectrics, and frequency control 52, No. 10, 1713-1721 (2005)
[1034] Gui, L.; Liu, J.: Study on the heat and fluid transport inside the biological tissues subject to boiling saline-based tumor hyperthermic injection, Heat transfer engineering 26, No. 9, 73-84 (2005)
[1035] Gui, L.; Liu, J.: Numerical study on a cooling strategy for boiling, saline-based tumor hyperthermic injector, Heat transfer engineering 26, No. 4, 51-64 (2005)
[1036] Janssen, F. P. E.M.; Van Leeuwen, G. M. J.; Van Steenhoven, A. A.: Numerical simulation of scalp cooling to prevent chemotherapy-induced alopecia, Strojniski vestnik/journal of mechanical engineering 51, No. 7-8, 386-390 (2005)
[1037] Ji, Y.; Liu, J.: New conceptual method for directly cooling the target biological tissues, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 3, 226-238 (2005)
[1038] Karagoz, I.; Kartal, M. K.: The effects of residual temperature rise on ultrasound heating, Ultrasound in medicine and biology 31, No. 12, 1665-1672 (2005)
[1039] Lapotko, D.; Shnip, A.; Lukianova, E.: Photothermal responses of individual cells, Journal of biomedical optics 10, No. 1, 1-12 (2005)
[1040] Lv, Y. G.; Deng, Z. S.; Liu, J.: 3-D numerical study on the induced heating effects of embedded micro/nanoparticles on human body subject to external medical electromagnetic field, IEEE transactions on nanobioscience 4, No. 4, 284-294 (2005)
[1041] Park, S. M.: MRI safety: RF-induced heating near straight wires, IEEE transactions on magnetics 41, No. 10, 4197-4199 (2005)
[1042] Persson, J.: Modeling of the heat distribution in the intervertebral disk, Ultrasound in medicine and biology 31, No. 5, 709-717 (2005)
[1043] Sterk, M.; Trobec, R.: Biomedical simulation of heat transfer in a human heart, Journal of chemical information and modeling 45, No. 6, 1558-1563 (2005)
[1044] Tsafnat, N.: Modelling heating of liver tumours with heterogeneous magnetic microsphere deposition, Physics in medicine and biology 50, No. 12, 2937-2953 (2005)
[1045] Zhang, J.: Numerical simulation for heat transfer in prostate cancer cryosurgery, Journal of biomechanical engineering 127, No. 2, 279-294 (2005)
[1046] Zhou, J.; Liu, J.; Yu, A.: Numerical study on the thawing process of biological tissue induced by laser irradiation, Journal of biomechanical engineering 127, No. 3, 416-431 (2005)
[1047] Janssen, F. E. M.; Van Leeuwen, G. M. J.; Van Steenhoven, A. A.: Modelling of temperature and perfusion during scalp cooling, Physics in medicine and biology 50, No. 17, 4065-4073 (2005)
[1048] Leduc, G.: Human radiative exchanges in a complex enclosure determination of active surfaces, International journal of heat and technology 23, No. 1, 47-53 (2005)
[1049] Li, F.; Li, Y.: Effect of clothing material on thermal responses of the human body, Modelling and simulation in materials science and engineering 13, No. 6, 809-827 (2005)
[1050] Lv, Y. G.; Liu, J.: Interpretation on thermal comfort mechanisms of human bodies by combining Hodgkin-Huxley neuron model and pennes bioheat equation, Forschung im ingenieurwesen/engineering research 69, No. 2, 101-114 (2005)
[1051] Naftali, S.: The air-conditioning capacity of the human nose, Annals of biomedical engineering 33, No. 4, 545-553 (2005)
[1052] Prek, M.: Thermodynamic analysis of human heat and mass transfer and their impact on thermal comfort, International journal of heat and mass transfer 48, No. 3 – 4, 731-739 (2005) · Zbl 1098.92021
[1053] Ghaddar, N.; Ghali, K.; Harathani, J.: Modulated air layer heat amd moisture transport by ventilation and diffusion from clothing with open aperture, Journal of heat transfer 127, No. 3, 287-297 (2005)
[1054] Ghaddar, N.: Ventilation rates of micro-climate air annulus of the clothing-skin system under periodic motion, International journal of heat and mass transfer 48, No. 15, 3151-3166 (2005)
[1055] Tarlochan, F.; Ramesh, S.: Heat transfer model for predicting survival time in cold water immersion, Biomedical engineering - applications, basis and communications 17, No. 4, 159-166 (2005)
[1056] Antaki, P. J.: New interpretation of non-Fourier heat conduction in processed meat, Journal of heat transfer 127, No. 2, 189-193 (2005)
[1057] Botoshan, N. I.; Bologa, M. K.; Berzoj, S. E.: Enhancing of heat transfer in the biological medium by electroplasmolysis, Elektronnaya obrabotka materialov, No. 1, 68-75 (2005)
[1058] Diller, K. R.: Bioheat and mass transfer as viewed through a microscope, Journal of biomechanical engineering 127, No. 1, 67-84 (2005)
[1059] Gafiychuk, V. V.; Lubashevsky, I. A.; Datsko, B. Y.: Fast heat propagation in living tissue caused by branching artery network, Physical review E - statistical, nonlinear, and soft matter physics 72, No. 5, 1-5 (2005)
[1060] Karaa, S.; Zhang, J.; Yang, F.: A numerical study of a 3D bioheat transfer problem with different spatial heating, Mathematics and computers in simulation 68, No. 4, 375-388 (2005) · Zbl 1062.92018
[1061] Shen, W.; Zhang, J.; Yang, F.: Modeling and numerical simulation of bioheat transfer and biomechanics in soft tissue, Mathematical and computer modelling 41, No. 11 – 12, 1251-1265 (2005) · Zbl 1080.92010
[1062] Shrivastava, D.; Mckay, B.; Roemer, R. B.: An analytical study of heat transfer in finite tissue with two blood vessels and uniform Dirichlet boundary conditions, Journal of heat transfer 127, No. 2, 179-188 (2005) · Zbl 1188.76286
[1063] Shrivastava, D.; Roemer, R.: An analytical study of heat transfer in a finite tissue region with two blood vessels and general Dirichlet boundary conditions, International journal of heat and mass transfer 48, No. 19-20, 4090-4102 (2005) · Zbl 1188.76286
[1064] Shrivastava, D.; Roemer, R. B.: An analytical study of ’Poisson conduction shape factors’ for two thermally significant vessels in a finite, heated tissue, Physics in medicine and biology 50, No. 15, 3627-3641 (2005)
[1065] Zhao, J. J.: A two level finite difference scheme for one dimensional pennes’ bioheat equation, Applied mathematics and computation 171, No. 1, 320-331 (2005) · Zbl 1086.65090
[1066] Chen, X. D.: Air drying of food and biological materials - modified Biot and Lewis number analysis, Drying technology 23, No. 9-11, 2239-2248 (2005)
[1067] Morison, K. R.; Larsen, S.: Spinning disc measurement of two-stage cleaning of heat transfer fouling deposits of milk, Journal of food process engineering 28, No. 6, 539-551 (2005)
[1068] Sebastian, P.: Drying and smoking of meat: heat and mass transfer modeling and experimental analysis, Journal of food engineering 70, No. 2, 227-243 (2005)
[1069] Leung, M.: Theoretical study of heat transfer with moving phase-change interface in thawing of frozen food, Journal of physics D: Applied physics 38, No. 3, 477-482 (2005)
[1070] Mhaisekar, A.; Kazmierczak, M. J.; Banerjee, R.: Three-dimensional numerical analysis of convection and conduction cooling of spherical biocrystals with localized heating from synchrotron X-ray beams, Journal of synchrotron radiation 12, No. 3, 318-328 (2005)
[1071] Yang, M.; Pal, R.; Burns, M. A.: Cost-effective thermal isolation techniques for use on microfabricated DNA amplification and analysis devices, Journal of micromechanics and microengineering 15, No. 1, 221-230 (2005)
[1072] Yu, X.; Leitner, D. M.: Heat flow in proteins: computation of thermal transport coefficients, Journal of chemical physics 122, No. 5, 1-11 (2005)
[1073] Amon, C. H.: Microelectromechanical system-based evaporative thermal management of high heat flux electronics, Journal of heat transfer 127, No. 1, 66-75 (2005)
[1074] Asbik, M.; Ansari, O.; Zeghmati, B.: Numerical study of boundary layer transition in flowing film evaporation on horizontal elliptical cylinder, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 399-410 (2005)
[1075] Babak, V. N.: Simultaneous heat and momentum transfer in two-phase systems at low pressure and high temperature: vapor phase, Theoretical foundations of chemical engineering 39, No. 3, 232-239 (2005)
[1076] Mohamed, A. Belhadj: The evaporation of a liquid film into a humid air stream under mixed convection condition along a vertical channel and the inversion temperature, International journal of heat and technology 23, No. 2, 101-108 (2005)
[1077] Buffone, C.; Sefiane, K.: Temperature measurement near the triple line during phase change using thermochromic liquid crystal thermography, Experiments in fluids 39, No. 1, 99-110 (2005)
[1078] Camargo, J. R.; Jr., E. Godoy; Ebinuma, C. D.: An evaporative and desiccant cooling system for air conditioning in humid climates, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 3, 243-247 (2005)
[1079] Chakraborty, S.; Som, S. K.: Heat transfer in an evaporating thin liquid film moving slowly along the walls of an inclined microchannel, International journal of heat and mass transfer 48, No. 13, 2801-2805 (2005) · Zbl 1189.76060
[1080] Cossali, G. E.; Marengo, M.; Santini, M.: Secondary atomisation produced by single drop vertical impacts onto heated surfaces, Experimental thermal and fluid science 29, No. 8, 937-946 (2005)
[1081] Dupont, V.; Thome, J. R.: Evaporation in microchannels: influence of the channel diameter on heat transfer, Microfluidics and nanofluidics 1, No. 2, 119-127 (2005)
[1082] Egginton, N.: Evaporative cooling saves energy costs, Engineering technology 8, No. 4, 39-40 (2005)
[1083] Fujii, T.: The dynamic characteristics of a thermal control system using latent heat: comparison between analytical and experimental results, Heat transfer - asian research 34, No. 8, 564-578 (2005)
[1084] Haut, B.; Colinet, P.: Surface-tension-driven instabilities of a pure liquid layer evaporating into an inert gas, Journal of colloid and interface science 285, No. 1, 296-305 (2005)
[1085] Issa, R. J.; Yao, S. C.: A numerical model for the mist dynamics and heat transfer at various ambient pressures, Journal of fluids engineering, transactions of the ASME 127, No. 4, 631-639 (2005)
[1086] Jang, J. H.; Yan, W. M.; Huang, C. C.: Mixed convection heat transfer enhancement through film evaporation in inclined square ducts, International journal of heat and mass transfer 48, No. 11, 2117-2125 (2005) · Zbl 1189.76487
[1087] Kim, M. H.; Shin, J. S.: Evaporating heat transfer of R22 and R410A in horizontal smooth and microfin tubes, International journal of refrigeration 28, No. 6, 940-948 (2005)
[1088] Lee, H. S.: Evaporating heat transfer and pressure drop of hydrocarbon refrigerants in 9.52 and 12.70mm smooth tube, International journal of heat and mass transfer 48, No. 12, 2351-2359 (2005)
[1089] Li, C. J.; Su, C. C.: Characteristics of a series-connected two-evaporator refrigerating system, Applied thermal engineering 25, No. 4, 519-532 (2005)
[1090] Liu, M. Y.; Xue, J. P.; Qiang, A. H.: Chaotic forecasting of time series of heat-transfer coefficient for an evaporator with a two-phase flow, Chemical engineering science 60, No. 3, 883-895 (2005)
[1091] Louahlia-Gualous, H.: Experimental analysis of the local heat transfer coefficient of falling film evaporation with and without co-current air flow velocity, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1066-1076 (2005)
[1092] Moghaddam, S.; Ohadi, M. M.: Effect of electrode geometry on performance of an EHD thin-film evaporator, Journal of microelectromechanical systems 14, No. 5, 978-986 (2005)
[1093] Oroszvari, B. K.; Sjoholm, I.; Tornberg, E.: The mechanisms controlling heat and mass transfer on frying of beefburgers. I. the influence of the composition and comminution of meat raw material, Journal of food engineering 67, No. 4, 499-506 (2005)
[1094] Perrier, F.: Scaling in convective evaporation and sidewall boundary layer, European physical journal B 45, No. 4, 555-560 (2005)
[1095] Pope, D. N.; Gogos, G.: Numerical simulation of fuel droplet extinction due to forced convection, Combustion and flame 142, No. 1 – 2, 89-106 (2005)
[1096] Reshetnikov, A. V.: Water flow rate pulsations with a Flicker power spectrum in a commercial sodium steam generator, Atomic energy 98, No. 2, 97-102 (2005)
[1097] Sazhin, S. S.: New approaches to numerical modelling of droplet transient heating and evaporation, International journal of heat and mass transfer 48, No. 19-20, 4215-4228 (2005) · Zbl 1188.76263
[1098] Suslov, V. A.: Investigation of heat transfer during boiling of spent alkaline solutions in evaporator tubes, Thermal engineering (English translation of teploenergetika) 52, No. 9, 735-738 (2005)
[1099] Suslov, V. A.: The dependence of local heat-transfer coefficients under boiling on the parameters and structures of two-phase foaming aqueous solutions, Thermal engineering (English translation of teploenergetika) 52, No. 8, 655-657 (2005)
[1100] Yang, T. H.; Pan, C.: Molecular dynamics simulation of a thin water layer evaporation and evaporation coefficient, International journal of heat and mass transfer 48, No. 17, 3516-3526 (2005) · Zbl 1189.76665
[1101] Yu, F. W.; Chan, K. T.: Application of direct evaporative coolers for improving the energy efficiency of air-cooled chillers, Journal of solar energy engineering, transactions of the ASME 127, No. 3, 430-433 (2005)
[1102] Lin, R.; Gu, G.; Tian, X.: Research of the temperature distribution of the hollow conductor in the evaporative cooling hydro-generators, Electric power components and systems 33, No. 2, 145-158 (2005)
[1103] Inoue, T.; Monde, M.; Yamagawa, E.: Bubble behavior and heat transfer during pool boiling of binary mixtures, Heat transfer - asian research 34, No. 7, 449-459 (2005)
[1104] Kljenak, I.; Mavko, B.: Simulation of void fraction profile evolution in subcooled nucleate boiling in a vertical annulus with a bubble-tracking model, Strojniski vestnik/journal of mechanical engineering 51, No. 7-8, 436-444 (2005)
[1105] Lie, Y. M.; Lin, T. F.: Saturated flow boiling heat transfer and associated bubble characteristics of R-134a in a narrow annular duct, International journal of heat and mass transfer 48, No. 25-26, 5602-5615 (2005)
[1106] Liu, D.; Lee, P. S.; Garimella, S. V.: Prediction of the onset of nucleate boiling in microchannel flow, International journal of heat and mass transfer 48, No. 25-26, 5134-5149 (2005) · Zbl 1188.76261
[1107] Liu, D.; Lee, P. S.; Garimella, S. V.: Nucleate boiling in microchannels, Journal of heat transfer 127, No. 8, 803 (2005) · Zbl 1188.76261
[1108] Liu, W.; Nariai, H.: Ultrahigh CHF prediction for subcooled flow boiling based on homogenous nucleation mechanism, Journal of heat transfer 127, No. 2, 149-158 (2005)
[1109] Lu, J. F.; Peng, X. F.: Bubble separation and collision on thin wires during subcooled boiling, International journal of heat and mass transfer 48, No. 23 – 24, 4726-4737 (2005)
[1110] Okawa, T.: On the rise paths of single vapor bubbles after the departure from nucleation sites in subcooled upflow boiling, International journal of heat and mass transfer 48, No. 21 – 22, 4446-4459 (2005)
[1111] Okawa, T.: An experimental study on bubble rise path after the departure from a nucleation site in vertical upflow boiling, Experimental thermal and fluid science 29, No. 3, 287-294 (2005)
[1112] Parker, J. L.; El-Genk, M. S.: Enhanced saturation and subcooled boiling of FC-72 dielectric liquid, International journal of heat and mass transfer 48, No. 18, 3736-3752 (2005)
[1113] Passos, J. C.; Da Silva, E. L.; Possamai, L. F. B.: Visualization of FC72 confined nucleate boiling, Experimental thermal and fluid science 30, No. 1, 1-7 (2005)
[1114] Patil, A. P.; Vittala, V. C. B.: Surface energy effect on boiling heat transfer, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1043-1047 (2005)
[1115] Qi, Y.; Klausner, J. F.: Heterogeneous nucleation with artificial cavities, Journal of heat transfer 127, No. 11, 1189-1196 (2005)
[1116] Sateesh, G.; Das, S. K.; Balakrishnan, A. R.: Analysis of pool boiling heat transfer: effect of bubbles sliding on the heating surface, International journal of heat and mass transfer 48, No. 8, 1543-1553 (2005) · Zbl 1189.76654
[1117] Situ, R.: Bubble lift-off size in forced convective subcooled boiling flow, International journal of heat and mass transfer 48, No. 25-26, 5536-5548 (2005)
[1118] Straub, J.: Bubble - bubbles - boiling, Microgravity science and technology 15, No. 1, 242-248 (2005)
[1119] Su, S.; Huang, S.; Wang, X.: Study of boiling incipience and heat transfer enhancement in forced flow through narrow channels, International journal of multiphase flow 31, No. 2, 253-260 (2005) · Zbl 05211538
[1120] Suzuki, K.: Enhancement of heat transfer in subcooled flow boiling with microbubble emission, Experimental thermal and fluid science 29, No. 7 SPEC. ISS., 827-832 (2005)
[1121] Takata, Y.: Effect of surface wettability on boiling and evaporation, Energy 30, No. 2-4 SPEC. ISS., 209-220 (2005)
[1122] Wang, H.: Jet flows around microbubbles in subcooled boiling, Journal of heat transfer 127, No. 8, 802 (2005)
[1123] Wang, H.: Investigation of bubble-top jet flow during subcooled boiling on wires, International journal of heat and fluid flow 26, No. 3, 485-494 (2005)
[1124] Wang, X. D.: Formation, structure, and evolution of boiling nucleus and interfacial tension between bulk liquid phase and nucleus, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 651-658 (2005)
[1125] Zhang, J.; Manglik, R. M.: Additive adsorption and interfacial characteristics of nucleate pool boiling in aqueous surfactant solutions, Journal of heat transfer 127, No. 7, 684-691 (2005)
[1126] Zhang, J.; Manglik, R. M.: Nucleate pool boiling of aqueous polymer solutions on a cylindrical heater, Journal of non-Newtonian fluid mechanics 125, No. 2-3, 185-196 (2005)
[1127] Zhou, D. W.: A novel concept for boiling heat transfer enhancement, Strojniski vestnik/journal of mechanical engineering 51, No. 7-8, 366-373 (2005)
[1128] Auracher, H.; Buchholz, M.: Experiments on the fundamental mechanisms of boiling heat transfer, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 1, 1-22 (2005)
[1129] Bulanov, N. V.; Gasanov, B. M.: Experimental setup for studying the chain activation of low-temperature boiling sites in superheated liquid droplets, Colloid journal 67, No. 5, 531-536 (2005)
[1130] Chovanec, F.; Usak, P.: Temperature oscillations in thin metallic tapes with transport current at liquid nitrogen temperature, Cryogenics 45, No. 2, 129-133 (2005)
[1131] Dong, Z.; Huai, X.: Experimental study and heat transfer analysis on the boiling of saturated liquid nitrogen under transient pulsed laser irradiation, Journal of thermal science 14, No. 1, 62-68 (2005)
[1132] Dong, Z.; Huai, X.; Liu, D.: Experimental study on the explosive boiling in saturated liquid nitrogen, Progress in natural science 15, No. 1, 61-65 (2005)
[1133] Myers, J. G.: Time and space resolved wall temperature and heat flux measurements during nucleate boiling with constant heat flux boundary conditions, International journal of heat and mass transfer 48, No. 12, 2429-2442 (2005)
[1134] Bang, I. C.; Chang, S. H.; Baek, W. P.: Visualization of a principle mechanism of critical heat flux in pool boiling, International journal of heat and mass transfer 48, No. 25-26, 5371-5385 (2005)
[1135] Bang, I. C.; Chang, S. Heung: Boiling heat transfer performance and phenomena of al2o 3-water nano-fluids from a plain surface in a pool, International journal of heat and mass transfer 48, No. 12, 2407-2419 (2005)
[1136] Behbahani, R. M.; Jamialahmadi, M.; Müller-Steinhagen, H.: Pool boiling heat transfer to phosphoric acid solutions, Heat transfer engineering 26, No. 4, 26-34 (2005)
[1137] Chen, Y.: Visualization and mechanisms of pool boiling of propane, isobutane and their mixtures on enhanced tubes with reentrant channels, International journal of heat and mass transfer 48, No. 12, 2516-2528 (2005)
[1138] Chen, Y.: Pool boiling heat transfer of propane, isobutane and their mixtures on enhanced tubes with reentrant channels, International journal of heat and mass transfer 48, No. 11, 2310-2322 (2005)
[1139] Ghiu, C. D.; Joshi, Y. K.: Visualization study of pool boiling from thin confined enhanced structures, International journal of heat and mass transfer 48, No. 21 – 22, 4287-4299 (2005)
[1140] Ghiu, C. D.; Joshi, Y. K.: Boiling performance of single-layered enhanced structures, Journal of heat transfer 127, No. 7, 675-683 (2005)
[1141] Gorenflo, D.; Kotthoff, S.: Review on pool boiling heat transfer of carbon dioxide, International journal of refrigeration 28, No. 8, 1169-1185 (2005)
[1142] Gupta, A.: Enhancement of boiling heat transfer in a \(5 \times 3\) tube bundle, International journal of heat and mass transfer 48, No. 18, 3763-3772 (2005)
[1143] Henry, C. D.; Kim, J.: Thermocapillary effects on low-g pool boiling from microheater arrays of various aspect ratio, Microgravity science and technology 15, No. 1, 170-175 (2005)
[1144] Henry, C. D.: Heater size and heater aspect ratio effects on subcooled pool boiling heat transfer in low-g, Experimental thermal and fluid science 29, No. 7 SPEC. ISS., 773-782 (2005)
[1145] Islam, M. A.; Monde, M.; Mitsutake, Y.: CHF characteristics and correlations of concentric-tube open thermosyphon working with R22, International journal of heat and mass transfer 48, No. 21 – 22, 4615-4622 (2005)
[1146] Kang, M. G.: Local pool boiling coefficients on the outside surface of a horizontal tube, Journal of heat transfer 127, No. 8, 949-953 (2005)
[1147] Kang, M. G.: Effects of outer tube length on saturated pool boiling heat transfer in a vertical annulus with closed bottoms, International journal of heat and mass transfer 48, No. 13, 2795-2800 (2005)
[1148] Kang, M. G.: Effects of pool subcooling on boiling heat transfer in a vertical annulus with closed bottom, International journal of heat and mass transfer 48, No. 2, 255-263 (2005)
[1149] Kim, Y. H.: Visualization of boiling phenomena in inclined rectangular gap, International journal of multiphase flow 31, No. 5, 618-642 (2005) · Zbl 1135.76458
[1150] Liaw, S. P.; Yeh, R. H.; Yeh, W. T.: A simple design of fins for boiling heat transfer, International journal of heat and mass transfer 48, No. 12, 2493-2502 (2005)
[1151] Liu, J.: Experimental study of pool boiling heat transfer of water-based magnetic fluid on a horizontal heater, Heat transfer - asian research 34, No. 3, 180-187 (2005)
[1152] Loebl, S.; Kraus, W. E.; Quack, H.: Pool boiling heat transfer of carbon dioxide on a horizontal tube, International journal of refrigeration 28, No. 8, 1196-1204 (2005)
[1153] Milanova, D.; Kumar, R.: Role of ions in pool boiling heat transfer of pure and silica nanofluids, Applied physics letters 87, No. 23, 1-3 (2005)
[1154] Obukhov, S. G.: Nonstationary crisis of nucleate boiling under the conditions of an electrically controlled heat load, Journal of engineering physics and thermophysics 78, No. 6, 1175-1180 (2005)
[1155] Obukhov, S. G.; Obukhov, D. S.: Influence of the operating time of a surface heated by electric current on the heat-transfer coefficient of kerosene and water boiling on it, Journal of engineering physics and thermophysics 78, No. 3, 554-560 (2005)
[1156] Ohta, H.; Baba, A.; Kawasaki, H.: ISS experiments for the clarification of boiling and two-phase flow in microgravity and for the development of high-performance space cold plates, Microgravity science and technology 15, No. 1, 224-230 (2005)
[1157] Priarone, A.: Effect of surface orientation on nucleate boiling and critical heat flux of dielectric fluids, International journal of thermal sciences 44, No. 9, 822-831 (2005)
[1158] Shen, B.; Groll, E. A.: Review article: a critical review of the influence of lubricants on the heat transfer and pressure drop of refrigerants, part I: Lubricant influence on pool and flow boiling, HVAC and R research 11, No. 3, 341-359 (2005)
[1159] Singh, H. N.; Kumar, R.; Mohanty, B.: Pool boiling of water and benzene on horizontal plain tubes in a vertical grid, International journal of heat and technology 23, No. 1, 69-72 (2005)
[1160] Sorokin, G.; Sorokin, A.: Experimentaland numerical investigation of liquid metal boiling in fuel subassemblies under natural circulation conditions, Progress in nuclear energy 47, No. 1 – 4, 656-663 (2005)
[1161] Wang, W. J.; Zhang, C. L.: Neural network model for boiling heat transfer of R22 and its alternative refrigerants inside horizontal smooth tubes, Journal of Shanghai jiaotong university (Science) 10 E, No. 1, 76-79 (2005)
[1162] Wei, J. J.; Guo, L. J.; Honda, H.: Experimental study of boiling phenomena and heat transfer performances of FC-72 over micro-pin-finned silicon chips, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 744-755 (2005)
[1163] Wen, D.; Ding, Y.: Experimental investigation into the pool boiling heat transfer of aqueous based \(\gamma \)-alumina nanofluids, Journal of nanoparticle research 7, No. 2-3, 265-274 (2005)
[1164] Yang, J.; Cheung, F. B.: A hydrodynamic CHF model for downward facing boiling on a coated vessel, International journal of heat and fluid flow 26, No. 3, 474-484 (2005)
[1165] Yang, J.: Critical heat flux for downward facing boiling on a coated hemispherical surface, Experimental heat transfer 18, No. 4, 223-242 (2005)
[1166] Chen, Q.: Heat transfer from a chemically oxidized or anodized copper plate to liquid helium, International journal of heat and mass transfer 48, No. 21 – 22, 4652-4656 (2005)
[1167] Vemuri, S.; Kim, K. J.: Pool boiling of saturated FC-72 on nano-porous surface, International communications in heat and mass transfer 32, No. 1 – 2, 27-31 (2005)
[1168] El-Genk, M. S.; Parker, J. L.: Enhanced boiling of HFE-7100 dielectric liquid on porous graphite, Energy conversion and management 46, No. 15-16, 2455-2481 (2005)
[1169] Groeneveld, D. C.: Lookup tables for predicting CHF and film-boiling heat transfer: past, present, and future, Nuclear technology 152, No. 1, 87-104 (2005)
[1170] Kim, C. S.: Effect of interfacial wavy motion on film boiling heat transfer from isothermal downward-facing hemispheres, Nuclear engineering and design 235, No. 20, 2141-2154 (2005)
[1171] Leung, L. K. H.; Groeneveld, D. C.; Zhang, J.: Prediction of the obstacle effect on film-boiling heat transfer, Nuclear engineering and design 235, No. 6, 687-700 (2005)
[1172] Takamasa, T.: Radiation induced surface activation on leidenfrost and quenching phenomena, Experimental thermal and fluid science 29, No. 3, 267-274 (2005)
[1173] Wen, D.; Chai, L.: Influence of dry patches dynamics on transition boiling, International journal of heat and technology 23, No. 1, 1-6 (2005)
[1174] Yang, S. A.; Lee, J. Y.; Yang, W. J.: Numerical visualization of turbulent film boiling heat transfer and vapor film growth on horizontal elliptical tubes, Journal of flow visualization and image processing 12, No. 3, 271-284 (2005)
[1175] Zhang, P.; Murakami, M.: Experimental investigation of the film boiling heat transfer in he II: Heat transfer coefficient, Cryogenics 45, No. 1, 77-83 (2005)
[1176] Agostini, B.; Bontemps, A.: Vertical flow boiling of refrigerant r134a in small channels, International journal of heat and fluid flow 26, No. 2, 296-306 (2005)
[1177] Atmane, M. A.; Murray, D. B.: The effect of the liquid motion induced by air and vapor bubbles on heat transfer around a cylinder, International journal of heat and mass transfer 48, No. 6, 1084-1095 (2005) · Zbl 1189.76617
[1178] Basu, N.; Warrier, G. R.; Dhir, V. K.: Wall heat flux partitioning during subcooled flow boiling: part II - model validation, Journal of heat transfer 127, No. 2, 141-148 (2005)
[1179] Basu, N.; Warrier, G. R.; Dhir, V. K.: Wall heat flux partitioning during subcooled flow boiling: part 1 - model development, Journal of heat transfer 127, No. 2, 131-140 (2005)
[1180] Bergles, A. E.; Kandlikar, S. G.: On the nature of critica heat flux in microchannels, Journal of heat transfer 127, No. 1, 101-107 (2005)
[1181] Bohdal, T.; Kuczyński, W.: Investigation of boiling of refrigeration medium under periodic disturbance conditions, Experimental heat transfer 18, No. 3, 135-151 (2005)
[1182] Burnside, B. M.; Shire, N. F.: Heat transfer in flow boiling over a bundle of horizontal tubes, Chemical engineering research and design 83, No. 5 A, 527-538 (2005)
[1183] Collado, F. J.: The law of stable equilibrium and the entropy-based boiling curve for flow boiling, Energy 30, No. 6, 807-819 (2005)
[1184] Greco, A.; Vanoli, G. P.: Flow-boiling of R22, r134a, R507, R404A and R410A inside a smooth horizontal tube, International journal of refrigeration 28, No. 6, 872-880 (2005)
[1185] Greco, A.; Vanoli, G. P.: Flow boiling heat transfer with HFC mixtures in a smooth horizontal tube. Part I: Experimental investigations, Experimental thermal and fluid science 29, No. 2, 189-198 (2005)
[1186] Greco, A.; Vanoli, G. P.: Flow boiling heat transfer with HFC mixtures in a smooth horizontal tube. Part II: Assessment of predictive methods, Experimental thermal and fluid science 29, No. 2, 199-208 (2005)
[1187] Grohmann, S.: Measurement and modeling of single-phase and flow-boiling heat transfer in microtubes, International journal of heat and mass transfer 48, No. 19-20, 4073-4089 (2005)
[1188] Helalizadeh, A.; Müller-Steinhagen, H.; Jamialahmadi, M.: Mathematical modelling of mixed salt precipitation during convective heat transfer and sub-cooled flow boiling, Chemical engineering science 60, No. 18, 5078-5088 (2005)
[1189] Jung, D.: Nucleate boiling heat transfer coefficients of flammable refrigerants on various enhanced tubes, International journal of refrigeration 28, No. 3, 451-455 (2005)
[1190] Kandlikar, S. G.; Balasubramanian, P.: An experimental study on the effect of gravitational orientation on flow boiling of water in \(1054 \times 197 \mu m\) parallel minichannels, Journal of heat transfer 127, No. 8, 820-829 (2005)
[1191] Kelbaliev, R. F.; Iskenderov, M. Z.: Investigation of characteristic features of critical heat transfer under conditions of boiling of subcooled hydrocarbons in a close-to-critical pressure range, High temperature 43, No. 3, 460-466 (2005)
[1192] Kim, C. H.; Bang, I. C.; Chang, S. H.: Critical heat flux performance for flow boiling of R-134a in vertical uniformly heated smooth tube and rifled tubes, International journal of heat and mass transfer 48, No. 14, 2868-2877 (2005)
[1193] Kim, C. H.; Chang, S. H.: CHF characteristics of R-134a flowing upward in uniformly heated vertical tube, International journal of heat and mass transfer 48, No. 11, 2242-2249 (2005)
[1194] Kosar, A.; Kuo, C. J.; Peles, Y.: Boiling heat transfer in rectangular microchannels with reentrant cavities, International journal of heat and mass transfer 48, No. 23 – 24, 4867-4886 (2005)
[1195] Kosar, A.; Kuo, C. J.; Peles, Y.: Reduced pressure boiling heat transfer in rectangular microchannels with interconnected reentrant cavities, Journal of heat transfer 127, No. 10, 1106-1114 (2005)
[1196] Lakshminarasimhan, M. S.: Fully developed nucleate boiling in narrow vertical channels, Journal of heat transfer 127, No. 8, 941-944 (2005)
[1197] Li, D.; Wells, M. A.: Effect of water flow rate, water temperature, nozzle size and nozzle stand-off distance on the boiling water heat transfer of AISI 316 stainless steel plate, Canadian metallurgical quarterly 44, No. 1, 59-70 (2005)
[1198] Liu, Y.: The effect of electrode polarity on EHD enhancement of boiling heat transfer in a vertical tube, Experimental thermal and fluid science 29, No. 5, 601-608 (2005)
[1199] Mikielewicz, D.; Mikielewicz, J.: Modelling of flow boiling process in small diameter tubes, Strojniski vestnik/journal of mechanical engineering 51, No. 7-8, 445-450 (2005)
[1200] Mosdorf, R.: Non-linear analyses of flow boiling in microchannels, International journal of heat and mass transfer 48, No. 21 – 22, 4667-4683 (2005) · Zbl 1189.76645
[1201] Park, C. Y.; Hrnjak, P. S.: Flow boiling heat transfer of CO2 at low temperatures in a horizontal smooth tube, Journal of heat transfer 127, No. 12, 1305-1312 (2005)
[1202] Payan-Rodriguez, L. A.: Critical heat flux prediction for water boiling in vertical tubes of a steam generator, International journal of thermal sciences 44, No. 2, 179-188 (2005)
[1203] Qiu, Y. H.; Liu, Z. H.: Critical heat flux in saturated and subcooled boiling for R-113 jet impingement on the stagnation zone, Applied thermal engineering 25, No. 14 – 15, 2367-2378 (2005)
[1204] Qiu, Y. H.; Liu, Z. H.: Critical heat flux of steady boiling for saturated liquids jet impinging on the stagnation zone, International journal of heat and mass transfer 48, No. 21 – 22, 4590-4597 (2005)
[1205] Sami, S. M.; Comeau, J. D.: Influence of magnetic field on two-phase flow convective boiling of some refrigerant mixtures, International journal of energy research 29, No. 15, 1371-1384 (2005)
[1206] Schael, A. E.; Kind, M.: Flow pattern and heat transfer characteristics during flow boiling of CO2 in a horizontal micro fin tube and comparison with smooth tube data, International journal of refrigeration 28, No. 8, 1186-1195 (2005)
[1207] Shah, M. M.: Improved general correlation for subcooled boiling heat transfer during flow across tubes and tube bundles, HVAC and R research 11, No. 2, 285-303 (2005)
[1208] Shunyu, S.; Huang, S. Y.; Wang, X. M.: Experiments and homogeneous turbulence model of boiling flowin narrow channels, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 9, 773-779 (2005)
[1209] Steiner, H.; Kobor, A.; Gebhard, L.: A wall heat transfer model for subcooled boiling flow, International journal of heat and mass transfer 48, No. 19-20, 4161-4173 (2005)
[1210] Su, S. Y.; Huang, S. Y.; Wang, X. M.: Investigation on the characteristics of boiling heat transfer through narrow annular channels, Heat transfer - asian research 34, No. 2, 78-84 (2005)
[1211] Thome, J. R.; Ribatski, G.: State-of-the-art of two-phase flow and flow boiling heat transfer and pressure drop of CO2 in macro- and micro-channels, International journal of refrigeration 28, No. 8, 1149-1168 (2005)
[1212] Tu, J. Y.: On population balance approach for subcooled boiling flow prediction, Journal of heat transfer 127, No. 3, 253-264 (2005)
[1213] Wellsandt, S.; Vamling, L.: Prediction method for flow boiling heat transfer in a herringbone microfin tube, International journal of refrigeration 28, No. 6, 912-920 (2005)
[1214] Wen, J.: Heat transfer and pressure drop of vapor-liquid-solid three-phase boiling flow of binary mixtures, Chemical engineering communications 192, No. 7-9, 956-971 (2005)
[1215] Wienecke, M.: Flow boiling of highly viscous fluids in a vertical annular tube, Chemical engineering research and design 83, No. 8 A, 1044-1051 (2005)
[1216] Yagov, V. V.: Heat transfer and crisis in swirl flow boiling, Experimental thermal and fluid science 29, No. 7 SPEC. ISS., 871-883 (2005)
[1217] Yang, D.: Numerical analysis of enhanced flow boiling heat transfer in vertical porous tube, Huagong xuebao/journal of chemical industry and engineering (China) 56, No. 3, 400-407 (2005)
[1218] Yu, W.: Small-channel flow boiling of one-component fluids and an ethylene glycol/water mixture, Experimental heat transfer 18, No. 4, 243-257 (2005)
[1219] Yun, R.; Kim, Y.; Kim, M. S.: Flow boiling heat transfer of carbon dioxide in horizontal mini tubes, International journal of heat and fluid flow 26, No. 5, 801-809 (2005)
[1220] Yun, R.; Kim, Y.; Kim, M. S.: Convective boiling heat transfer characteristics of CO2 in microchannels, International journal of heat and mass transfer 48, No. 2, 235-242 (2005)
[1221] Zhang, H.; Mudawar, I.; Hasan, M. M.: Flow boiling CHF in microgravity, International journal of heat and mass transfer 48, No. 15, 3107-3118 (2005)
[1222] Zhang, W.; Hibiki, T.; Mishima, K.: Correlation for flow boiling heat transfer at low liquid Reynolds number in small diameter channels, Journal of heat transfer 127, No. 11, 1214-1221 (2005)
[1223] Nellis, G.; Hughes, C.; Pfotenhauer, J.: Heat transfer coefficient measurements for mixed gas working fluids at cryogenic temperatures, Cryogenics 45, No. 8, 546-556 (2005)
[1224] Jr., J. R. Barbosa: Two-phase non-equilibrium models: the challenge of improving phase change heat transfer prediction, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 1, 31-45 (2005)
[1225] Changhong, P.: Two-phase flow and boiling heat transfer in two vertical narrow annuli, Nuclear engineering and design 235, No. 16, 1737-1747 (2005)
[1226] Ha, K. S.; Lee, Y. B.; No, H. C.: Improvements in predicting void fraction in subcooled boiling, Nuclear technology 150, No. 3, 283-292 (2005)
[1227] Hetsroni, G.: Explosive boiling of water in parallel micro-channels, International journal of multiphase flow 31, No. 4, 371-392 (2005) · Zbl 1135.76436
[1228] Lee, J.; Mudawar, I.: Two-phase flow in high-heat-flux micro-channel heat sink for refrigeration cooling applications: part II - heat transfer characteristics, International journal of heat and mass transfer 48, No. 5, 941-955 (2005)
[1229] Li, H. Y.; Lee, P. C.; Pan, C.: Two-phase flow instability of boiling in two parallel microchannels, Journal of the chinese society of mechanical engineers, transactions of the chinese institute of engineers, series C/chung-kuo chi hsueh Kung ch’eng hsuebo pao 26, No. 1 – 2, 27-34 (2005)
[1230] Li, J.; Peterson, G. P.: Boiling nucleation and two-phase flow patterns in forced liquid flow in microchannels, International journal of heat and mass transfer 48, No. 23 – 24, 4797-4810 (2005)
[1231] Saitoh, S.; Daiguji, H.; Hihara, E.: Effect of tube diameter on boiling heat transfer of R-134a in horizontal small-diameter tubes, International journal of heat and mass transfer 48, No. 23 – 24, 4973-4984 (2005) · Zbl 1140.80366
[1232] Sripattrapan, W.; Wongwises, S.: Two-phase flow of refrigerants during evaporation under constant heat flux in a horizontal tube, International communications in heat and mass transfer 32, No. 3 – 4, 386-402 (2005)
[1233] Thome, J. R.: Update on advances in flow pattern based two-phase heat transfer models, Experimental thermal and fluid science 29, No. 3, 341-349 (2005)
[1234] Wojtan, L.; Ursenbacher, T.; Thome, J. R.: Investigation of flow boiling in horizontal tubes: part I - a new diabatic two-phase flow pattern map, International journal of heat and mass transfer 48, No. 14, 2955-2969 (2005)
[1235] Wojtan, L.; Ursenbacher, T.; Thome, J. R.: Investigation of flow boiling in horizontal tubes: part II - development of a new heat transfer model for stratified-wavy, dryout and mist flow regimes, International journal of heat and mass transfer 48, No. 14, 2970-2985 (2005)
[1236] Xu, J.: Microscale boiling heat transfer in a micro-timescale at high heat fluxes, Journal of micromechanics and microengineering 15, No. 2, 362-376 (2005)
[1237] Xu, J.: Transient flow pattern based microscale boiling heat transfer mechanisms, Journal of micromechanics and microengineering 15, No. 6, 1344-1361 (2005)
[1238] C.W. Zhang et al., Theoretical investigation of flow regime for boiling water two-phase flow in horizontal rectangular narrow channels, Hedongli Gongcheng/Nuclear Power Engineering 26 (4).
[1239] M.A. Bahajji et al., Study about the flashing process through a metering expansion valve, Experimental Thermal and Fluid Science, 2005. 29 (7 SPEC. ISS.) (2005) 757 – 763.
[1240] Cotton, J.: A two-phase flow pattern map for annular channels under a DC applied voltage and the application to electrohydrodynamic convective boiling analysis, International journal of heat and mass transfer 48, No. 25-26, 5536-5579 (2005) · Zbl 1188.76276
[1241] Aktershev, S. P.; Alekseenko, S. V.: Influence of condensation on the stability of a liquid film moving under the effect of gravity and turbulent vapor flow, International journal of heat and mass transfer 48, No. 6, 1039-1052 (2005) · Zbl 1189.76224
[1242] Chamra, L. M.: Modeling of condensation heat transfer of pure refrigerants in micro-fin tubes, International journal of heat and mass transfer 48, No. 7, 1293-1302 (2005)
[1243] Garimella, S.; Agarwal, A.; Killion, J. D.: Condensation pressure drop in circular microchannels, Heat transfer engineering 26, No. 3, 28-35 (2005)
[1244] Wang, H. S.; Rose, J. W.: A theory of film condensation in horizontal noncircular section microchannels, Journal of heat transfer 127, No. 10, 1096-1105 (2005)
[1245] Lin, Y. T.; Yang, S. A.: Turbulent film condensation on a horizontal elliptical tube, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 6, 495-502 (2005)
[1246] Mosaad, M.: Forced convection laminar film condensation on an inclined elliptical tube in the absence of gravity, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 953-960 (2005)
[1247] Lin, Y. T.; Yang, S. A.: Turbulent film condensation on a nonisothermal horizontal tube, Journal of mechanics 21, No. 4, 235-242 (2005)
[1248] Oh, S.; Revankar, S. T.: Boundary layer analysis for steam condensation in a vertical tube with noncondensable gases, International journal of heat exchangers 6, No. 1, 93-124 (2005)
[1249] Revankar, S. T.; Pollock, D.: Laminar film condensation in a vertical tube in the presence of noncondensable gas, Applied mathematical modelling 29, No. 4, 341-359 (2005) · Zbl 1130.76431
[1250] Martin-Valdepenas, J. M.: Comparison of film condensation models in presence of non-condensable gases implemented in a CFD code, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 961-976 (2005)
[1251] Petrovic, A.: Analytical study of flow regimes for direct contact condensation based on parametrical investigation, Journal of pressure vessel technology, transactions of the ASME 127, No. 1, 20-25 (2005)
[1252] Kobus, C. J.: An investigation into the effect of subcooled liquid inertia on flow-change-induced transient flow surges in horizontal condensing flow systems, Journal of heat transfer 127, No. 11, 1280-1284 (2005)
[1253] Briggs, A.; Sabaratnam, S.: Condensation from pure steam and steam-air mixtures on integral-fin tubes in a bank, Journal of heat transfer 127, No. 6, 571-580 (2005)
[1254] Kumar, R.; Gupta, A.; Vishvakarma, S.: Condensation of R-134a vapour over single horizontal integral-fin tubes: effect of fin height, International journal of refrigeration 28, No. 3, 428-435 (2005)
[1255] Namasivayam, S.; Briggs, A.: Condensation of ethylene glycol on integral-fin tubes: effect of fin geometry and vapor velocity, Journal of heat transfer 127, No. 11, 1197-1206 (2005)
[1256] Chen, Q.; Amano, R. S.; Xin, M. D.: Experimental study of R134A condensation heat transfer inside the horizontal micro-fin tubes, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 9, 785-791 (2005)
[1257] Han, D.; Lee, K. J.: Experimental study on condensation heat transfer enhancement and pressure drop penalty factors in four microfin tubes, International journal of heat and mass transfer 48, No. 18, 3804-3816 (2005)
[1258] Honda, H.; Wijayanta, A. T.; Takata, N.: Condensation of R407C in a horizontal microfin tube, International journal of refrigeration 28, No. 2, 203-211 (2005)
[1259] Kim, M. H.; Shin, J. S.: Condensation heat transfer of R22 and R410A in horizontal smooth and microfin tubes, International journal of refrigeration 28, No. 6, 949-957 (2005)
[1260] Liebenberg, L.; Thome, J. R.; Meyer, J. P.: Flow visualization and flow pattern identification with power spectral density distributions of pressure traces during refrigerant condensation in smooth and microfin tubes, Journal of heat transfer 127, No. 3, 209-220 (2005)
[1261] Cavallini, A.: Condensation heat transfer and pressure gradient inside multiport minichannels, Heat transfer engineering 26, No. 3, 45-55 (2005)
[1262] Shin, J. S.; Kim, M. H.: An experimental study of flow condensation heat transfer inside circular and rectangular mini-channels, Heat transfer engineering 26, No. 3, 36-44 (2005)
[1263] Wu, H. Y.; Cheng, P.: Condensation flow patterns in silicon microchannels, International journal of heat and mass transfer 48, No. 11, 2186-2197 (2005)
[1264] Hu, H. P.; Chen, C. K.: Turbulent film condensation on an isothermal sphere, Journal of thermophysics and heat transfer 19, No. 1, 81-86 (2005)
[1265] Simpson, D. A.; White, A. J.: Viscous and unsteady flow calculations of condensing steam in nozzles, International journal of heat and fluid flow 26, No. 1, 71-79 (2005)
[1266] Avetissian, A. R.; Philippov, G. A.; Zaichik, L. I.: The effect of turbulence on spontaneously condensing wet-steam flow, Nuclear engineering and design 235, No. 10-12, 1215-1223 (2005)
[1267] Yamamoto, S.: Computation of practical flow problems with release of latent heat, Energy 30, No. 2-4 SPEC. ISS., 197-208 (2005)
[1268] Tanrikut, A.; Yeşin, O.: Experimental research on in-tube condensation under steady-state and transient conditions, Nuclear technology 149, No. 1, 88-100 (2005)
[1269] Bansal, P. K.; Yang, C.: Reverse heat transfer and re-condensation phenomena in non-adiabatic capillary tubes, Applied thermal engineering 25, No. 17-18, 3187-3202 (2005)
[1270] Clark, J. A.; Brandt, R. W.: Direct, continuous condensation of steam in flowing water, Journal of thermophysics and heat transfer 19, No. 4, 455-459 (2005)
[1271] Nagae, T.: Evaluation of reflux condensation heat transfer of steam-air mixtures under gas-liquid countercurrent flow in a vertical tube, Journal of nuclear science and technology 42, No. 1, 50-57 (2005)
[1272] Randall, D. L.; Eckels, S. J.: Effect of inundation upon the condensation heat transfer performance of R-134a: part II - results (RP-984), HVAC and R research 11, No. 4, 543-562 (2005)
[1273] Randall, D. L.; Eckels, S. J.: Effect of inundation upon the condensation heat transfer performance of R-134a: part I - facility overview and data analysis (RP-984), HVAC and R research 11, No. 4, 527-542 (2005)
[1274] Murase, T.: Condensation on a horizontal wire-wrapped tube, Journal of heat transfer 127, No. 11, 1207-1213 (2005)
[1275] Pang, G.; Dale, J. D.; Kwok, D. Y.: An integrated study of dropwise condensation heat transfer on self-assembled organic surfaces through Fourier transform infra-red spectroscopy and ellipsometry, International journal of heat and mass transfer 48, No. 2, 307-316 (2005)
[1276] Vemuri, S.: Cost-effective techniques for enhancing heat transfer rate in steam condensation, Journal of thermophysics and heat transfer 19, No. 1, 101-105 (2005)
[1277] Del Col, D.; Cavallini, A.; Thome, J. R.: Condensation of zeotropic mixtures in horizontal tubes: new simplified heat transfer model based on flow regimes, Journal of heat transfer 127, No. 3, 221-230 (2005)
[1278] Karlsson, T.; Vamling, L.: Surprising effects of combined vapour and liquid mass transfer resistances when condensing a mixture outside tube banks, International journal of heat and mass transfer 48, No. 2, 403-412 (2005)
[1279] Jung, D.: Condensation heat transfer coefficients of binary HFC mixtures on low fin and turbo-C tubes, International journal of refrigeration 28, No. 2, 212-217 (2005)
[1280] Wang, S.; Utaka, Y.: An experimental study on the effect of non-condensable gas for solutal Marangoni condensation heat transfer, Experimental heat transfer 18, No. 2, 61-79 (2005)
[1281] Thome, J. R.: Condensation in plain horizontal tubes: recent advances in modelling of heat transfer to pure fluids and mixtures, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 1, 23-30 (2005)
[1282] Lee, Y. B.; Ro, S. T.: Analysis of the frost growth on a flat plate by simple models of saturation and supersaturation, Experimental thermal and fluid science 29, No. 6, 685-696 (2005)
[1283] Leung, M.: Theoretical study of heat transfer with moving phase-change interface in thawing of frozen food, Journal of physics D: Applied physics 38, No. 3, 477-482 (2005)
[1284] Tao, Z.: Numerical simulation of conjugate heat and mass transfer process within cylindrical porous media with cylindrical dielectric cores in microwave freeze-drying, International journal of heat and mass transfer 48, No. 3 – 4, 561-572 (2005) · Zbl 1121.76415
[1285] Tashtoush, B.: Magnetic and buoyancy effects on melting from a vertical plate embedded in saturated porous media, Energy conversion and management 46, No. 15-16, 2566-2577 (2005)
[1286] Nam, J. H.; Song, C. S.: An efficient calculation of multidimensional freeze-drying problems using fixed grid method, Drying technology 23, No. 12, 2491-2511 (2005)
[1287] Varela, G. G. Aguirre; Castellano, N. E.; Avila, E. E.: A possible influence of the density of ice accretions on their heat transfer coefficient, Quarterly journal of the royal meteorological society 131, No. 605, 377-379 (2005)
[1288] Bellache, O.; Ouzzane, M.; Galanis, N.: Numerical prediction of ventilation patterns and thermal processes in ice rinks, Building and environment 40, No. 3, 417-426 (2005)
[1289] Ben Lakhdar, M.: Heat transfer with freezing in a scraped surface heat exchanger, Applied thermal engineering 25, No. 1, 45-60 (2005)
[1290] Ho, C. D.; Yeh, H. M.; Tu, J. W.: Chilled air production in cool-thermal discharge systems from ice melting under constant heat flux and melt removal, International communications in heat and mass transfer 32, No. 3 – 4, 491-500 (2005)
[1291] Ho, C. D.: Heat transfer enhancement in cool-thermal discharge systems from ice melting with producing chilled air under time-velocity variations and external recycles, Tamkang journal of science and engineering 8, No. 4, 291-298 (2005)
[1292] Hua, J.; Liu, H. H. T.: Fluid flow and thermodynamic analysis of a wing anti-icing system, Canadian aeronautics and space journal 51, No. 1, 35-40 (2005)
[1293] Kolunin, V. S.: Heat and mass transfer in porous media with ice inclusions near the freezing-point, International journal of heat and mass transfer 48, No. 6, 1175-1185 (2005) · Zbl 1189.76601
[1294] Mago, P. J.; Sherif, S. A.: Frost formation and heat transfer on a cold surface in ice fog, International journal of refrigeration 28, No. 4, 538-546 (2005)
[1295] Tudor, V.: Advances in control of frost on evaporator coils with an applied electric field, International journal of heat and mass transfer 48, No. 21 – 22, 4428-4434 (2005)
[1296] Roy, S.; Kumar, H.; Anderson, R.: Efficient defrosting of an inclined flat surface, International journal of heat and mass transfer 48, No. 13, 2613-2624 (2005) · Zbl 1189.76703
[1297] Wang, W.; Chen, G.: Heat and mass transfer model of dielectric-material-assisted microwave freeze-drying of skim milk with hygroscopic effect, Chemical engineering science 60, No. 23, 6542-6550 (2005)
[1298] Zorrilla, S. E.; Rubiolo, A. C.: Mathematical modeling for immersion chilling and freezing of foods. Part I: Model development, Journal of food engineering 66, No. 3, 329-338 (2005)
[1299] Zorrilla, S. E.; Rubiolo, A. C.: Mathematical modeling for immersion chilling and freezing of foods. Part II: Model solution, Journal of food engineering 66, No. 3, 339-351 (2005)
[1300] Stamatiou, E.; Kawaji, M.: Thermal and flow behavior of ice slurries in a vertical rectangular channel-part II. Forced convective melting heat transfer, International journal of heat and mass transfer 48, No. 17, 3544-3559 (2005)
[1301] Stamatiou, E.; Meewisse, J. W.; Kawaji, M.: Ice slurry generation involving moving parts, International journal of refrigeration 28, No. 1, 60-72 (2005)
[1302] Sugawara, M.; Ishikura, T.; Beer, H.: Effect of cavity inclination on a temperature and concentration controlled double diffusive convection at ice plate melting, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 432-441 (2005)
[1303] P. Pronk et al., Maximum temperature difference without ice-scaling in scraped surface crystallizers during eutectic freeze crystallization, in VDI Berichte, 2005, 1141-1146.
[1304] Mitzeva, R. P.; Saunders, C. P. R.; Tsenova, B.: A modelling study of the effect of cloud saturation and particle growth rates on charge transfer in thunderstorm electrification, Atmospheric research 76, No. 1 – 4, 206-221 (2005)
[1305] Hindmarsh, J. P.; Wilson, D. I.; Johns, M. L.: Using magnetic resonance to validate predictions of the solid fraction formed during recalescence of freezing drops, International journal of heat and mass transfer 48, No. 5, 1017-1021 (2005)
[1306] Lucas, T.: MRI quantification of ice gradients in dough during freezing or thawing processes, Journal of food engineering 71, No. 1, 98-108 (2005)
[1307] Kholpanov, L. P.; Zakiev, S. E.; Pomogailo, A. D.: Heat transfer complicated by phase transitions in a moving layer, Theoretical foundations of chemical engineering 39, No. 3, 225-231 (2005)
[1308] Kunstreich, S.; Dauby, P. H.: State-of-the-art and new developments in electromagnetic treatment of steel melts, Stahl und eisen 125, No. 4, 25-33 (2005)
[1309] Lee, Y. E.; Kolbeinsen, L.: Kinetics of oxygen refining process for ferromanganese alloys, ISIJ international 45, No. 9, 1282-1290 (2005)
[1310] Miao, S. M.; Zhu, X. P.; Lei, M. K.: Numerical analysis of ablated behaviors on titanium irradiated by high-intensity pulsed ion beam, Nuclear instruments and methods in physics research, section B: beam interactions with materials and atoms 229, No. 3 – 4, 381-391 (2005)
[1311] Mukherjee, A.; Stevens, J. G.: Heat transport in Stokes problem with melting: a two-layer approach, International journal of heat and mass transfer 48, No. 8, 1554-1562 (2005) · Zbl 1189.76700
[1312] Raessi, M.; Mostaghimi, J.: Three-dimensional modeling of density variation due to phase change in complex free surface flows, Numerical heat transfer, part B: fundamentals 47, No. 6, 507-531 (2005)
[1313] Saitoh, K. I.: Molecular dynamics study of nano-size silica melting by high heat flux, Computational materials science 32, No. 1, 66-84 (2005)
[1314] Cantarel, A.: Metal matrix composite processing: numerical study of heat transfer between fibers and metal, International journal of numerical methods for heat and fluid flow 15, No. 8, 808-826 (2005)
[1315] Konrad, C.; Zhang, Y.; Xiao, B.: Analysis of melting and resolidification in a two-component metal powder bed subjected to temporal Gaussian heat flux, International journal of heat and mass transfer 48, No. 19-20, 3932-3944 (2005) · Zbl 1188.76269
[1316] Kumar, S.: Heat transfer analysis and estimation of refractory wear in an iron blast furnace hearth using finite element method, ISIJ international 45, No. 8, 1122-1128 (2005)
[1317] Nath, N. K.; Mitra, K.: Mathematical modeling and optimization of two-layer sintering process for sinter quality and fuel efficiency using genetic algorithm, Materials and manufacturing processes 20, No. 3, 335-349 (2005)
[1318] He, X.; Elmer, J. W.; Debroy, T.: Heat transfer and fluid flow in laser microwelding, Journal of applied physics 97, No. 8, 1-9 (2005)
[1319] Kahveci, K.; Can, Y.; Cihan, A.: Heat transfer in continuous-drive friction welding of different diameters, Numerical heat transfer; part A: applications 48, No. 10, 1035-1050 (2005)
[1320] Mishra, S.; Debroy, T.: A heat-transfer and fluid-flow-based model to obtain a specific weld geometry using various combinations of welding variables, Journal of applied physics 98, No. 4, 1-10 (2005)
[1321] Mesalhy, O.: Numerical study for enhancing the thermal conductivity of phase change material (PCM) storage using high thermal conductivity porous matrix, Energy conversion and management 46, No. 6, 847-867 (2005)
[1322] Akhilesh, R.; Narasimhan, A.; Balaji, C.: Method to improve geometry for heat transfer enhancement in PCM composite heat sinks, International journal of heat and mass transfer 48, No. 13, 2759-2770 (2005) · Zbl 1189.80008
[1323] Alawadhi, E. M.: Thermal insulation for a pipe using phase change material, Heat transfer engineering 26, No. 8, 32-40 (2005)
[1324] Alawadhi, E. M.: Temperature regulator unit for fluid flow in a channel using phase change material, Applied thermal engineering 25, No. 2-3, 435-449 (2005)
[1325] Hendra, R.: Thermal and melting heat transfer characteristics in a latent heat storage system using mikro, Applied thermal engineering 25, No. 10, 1503-1515 (2005)
[1326] Bhat, N. V.; Mehrotra, A. K.: Modeling of deposit formation from ”waxy” mixtures via moving boundary formulation: radial heat transfer under static and laminar flow conditions, Industrial and engineering chemistry research 44, No. 17, 6948-6962 (2005)
[1327] Lin, J. F.; Ho, C. J.: Thermally developing forced convection for PCM suspensions in a circular duct, Journal of the chinese society of mechanical engineers, transactions of the chinese institute of engineers, series C/chung-kuo chi hsueh Kung ch’eng hsuebo pao 26, No. 1 – 2, 45-53 (2005)
[1328] Krishnan, S.; Garimella, S. V.; Kang, S. S.: A novel hybrid heat sink using phase change materials for transient thermal management of electronics, IEEE transactions on components and packaging technologies 28, No. 2, 281-289 (2005)
[1329] Duffey, R. B.; Pioro, I. L.: Experimental heat transfer of supercritical carbon dioxide flowing inside channels (survey), Nuclear engineering and design 235, No. 8, 913-924 (2005)
[1330] Shatikian, V.; Ziskind, G.; Letan, R.: Numerical investigation of a PCM-based heat sink with internal fins, International journal of heat and mass transfer 48, No. 17, 3689-3706 (2005) · Zbl 1189.76706
[1331] Ettouney, H.; El-Dessouky, H.; Al-Ali, A.: Heat transfer during phase change of paraffin wax stored in spherical shells, Journal of solar energy engineering, transactions of the ASME 127, No. 3, 357-365 (2005)
[1332] Kaygusuz, K.; Sari, A.: Thermal energy storage system using a technical grade paraffin wax as latent heat energy storage material, Energy sources 27, No. 16, 1535-1546 (2005)
[1333] Trp, A.: An experimental and numerical investigation of heat transfer during technical grade paraffin melting and solidification in a shell-and-tube latent thermal energy storage unit, Solar energy 79, No. 6, 648-660 (2005)
[1334] Parthasarathi, P.; Mehrotra, A. K.: Solids deposition from multicomponent wax-solvent mixtures in a benchscale flow-loop apparatus with heat transfer, Energy and fuels 19, No. 4, 1387-1398 (2005)
[1335] Halawa, E.; Bruno, F.; Saman, W.: Numerical analysis of a PCM thermal storage system with varying wall temperature, Energy conversion and management 46, No. 15-16, 2592-2604 (2005)
[1336] Hernandez-Guerrero, A.: Effect of cell geometry on the freezing and melting processes inside a thermal energy storage cell, Journal of energy resources technology, transactions of the ASME 127, No. 2, 95-102 (2005)
[1337] Krishnan, S.; Murthy, J. Y.; Garimella, S. V.: A two-temperature model for solid-liquid phase change in metal foams, Journal of heat transfer 127, No. 9, 995-1004 (2005)
[1338] Mohamed, M. M.: Solidification of phase change material on vertical cylindrical surface in holdup air bubbles, International journal of refrigeration 28, No. 3, 403-411 (2005)
[1339] Royon, L.: Comparison between aqueous polymer solutions and water as phase change material (PCM) used for cold transport chain, Experimental heat transfer 18, No. 2, 87-93 (2005)
[1340] Sharma, A.: Numerical heat transfer studies of the fatty acids for different heat exchanger materials on the performance of a latent heat storage system, Renewable energy 30, No. 14, 2179-2187 (2005)
[1341] Shiina, Y.; Inagaki, T.: Study on the efficiency of effective thermal conductivities on melting characteristics of latent heat storage capsules, International journal of heat and mass transfer 48, No. 2, 373-383 (2005) · Zbl 1121.76507
[1342] Fteiti, M.; Nasrallah, S. B.: Numerical study of interaction between the fluid structure and the moving interface during the melting from below in a rectangular closed enclosure, Computational mechanics 35, No. 3, 161-169 (2005) · Zbl 1143.76593
[1343] Ho, C. J.; Chiu, S. Y.; Lin, J. F.: Heat transfer characteristics of a rectangular natural circulation loop containing solid-liquid phase-change material suspensions, International journal of numerical methods for heat and fluid flow 15, No. 5, 441-461 (2005)
[1344] Hossain, M. A.; Hafiz, M. Z.; Rees, D. A. S.: Buoyancy and thermocapillary driven convection flow of an electrically conducting fluid in an enclosure with heat generation, International journal of thermal sciences 44, No. 7, 676-684 (2005)
[1345] Kamal, M.; Sahai, Y.: Modeling of melt flow and surface standing waves in a continuous casting mold, Steel research international 76, No. 1, 44-52 (2005)
[1346] Kang, K. G.; Ryou, H. S.; Hur, N. K.: Coupled turbulent flow, heat, and solute transport in continuous casting processes with an electromagnetic brake, Numerical heat transfer; part A: applications 48, No. 5, 461-481 (2005)
[1347] Wang, H.: Mathematical heat transfer model research for the improvement of continuous casting slab temperature, ISIJ international 45, No. 9, 1291-1296 (2005)
[1348] Zhao, K.; Shen, M.; Wang, X.: Simulation of inside-grooved mould improving heat transfer of original shell of casting slab, Journal of university of science and technology Beijing: mineral metallurgy materials (Eng ed) 12, No. 1, 23-25 (2005)
[1349] Gao, Z.: Mechanism and simulation of external cooling in aluminum casting-rolling process, Transactions of nonferrous metals society of China (English edition) 15, No. 5, 1113-1119 (2005)
[1350] Kim, H. S.: Solidification parameters dependent on interfacial heat transfer coefficient between aluminum casting and copper mold, ISIJ international 45, No. 2, 192-198 (2005)
[1351] Santos, C. A.: Application of a solidification mathematical model and a genetic algorithm in the optimization of strand thermal profile along the continuous casting of steel, Materials and manufacturing processes 20, No. 3, 421-434 (2005)
[1352] Santos, C. A.: A solidification heat transfer model and a neural network based algorithm applied to the continuous casting of steel billets and blooms, Modelling and simulation in materials science and engineering 13, No. 7, 1071-1087 (2005)
[1353] Zhao, B.: Transient flow and temperature transport in continuous casting of steel slabs, Journal of heat transfer 127, No. 8, 807 (2005)
[1354] Sengupta, J.; Thomas, B. G.; Wells, M. A.: The use of water cooling during the continuous casting of steel and aluminum alloys, Metallurgical and materials transactions A: physical metallurgy and materials science 36 A, No. 1, 187-204 (2005)
[1355] Sengupta, J.: Quantification of temperature, stress, and strain fields during the start-up phase of direct chill casting process by using a 3D fully coupled thermal and stress model for AA5182 ingots, Materials science and engineering A 397, No. 1 – 2, 157-177 (2005)
[1356] Hong, F. J.; Qiu, H. H.: Modeling of substrate remelting, flow, and resolidification in microcasting, Numerical heat transfer; part A: applications 48, No. 10, 987-1008 (2005)
[1357] Lamberti, G.; Titomanlio, G.: Analysis of film casting process: the heat transfer phenomena, Chemical engineering and processing: process intensification 44, No. 10, 1117-1122 (2005)
[1358] Phaniraj, M. P.; Behera, B. B.; Lahiri, A. K.: Thermo-mechanical modeling of two phase rolling and microstructure evolution in the hot strip mill: part I. Prediction of rolling loads and finish rolling temperature, Journal of materials processing technology 170, No. 1 – 2, 323-335 (2005)
[1359] Raudensky, M.; Horsky, J.: Secondary cooling in continuous casting and leidenfrost temperature effects, Ironmaking and steelmaking 32, No. 2, 159-164 (2005)
[1360] Xu, D.: Heat, mass and momentum transport behaviors in directionally solidifying blade-like castings in different electromagnetic fields described using a continuum model, International journal of heat and mass transfer 48, No. 11, 2219-2232 (2005) · Zbl 1189.76714
[1361] Yen, C.; Lin, J. C.; Li, W.: The selection of optimal cooling parameters for the multi-cavity die, International journal of advanced manufacturing technology 26, No. 3, 228-235 (2005)
[1362] Zhang, L.: Fluid flow, heat transfer and inclusion motion in a four-strand billet continuous casting tundish, Steel research international 76, No. 11, 784-796 (2005)
[1363] Dimla, D. E.; Camilotto, M.; Miani, F.: Design and optimisation of conformal cooling channels in injection moulding tools, Journal of materials processing technology 164 – 165, 1294-1300 (2005)
[1364] Nylund, C.; Meinander, K.: The influence of heat transfer coefficient on cooling time in injection molding, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 428-431 (2005)
[1365] Yao, M.: Development of an experimental system for the study of the effects of electromagnetic stirring on mold heat transfer, Metallurgical and materials transactions B: process metallurgy and materials processing science 36, No. 4, 475-478 (2005)
[1366] Zhou, H.; Li, D.: Modeling and simulation of heat transfer for Glass bulb mold, Progress in natural science 15, No. 7, 650-655 (2005)
[1367] Kuzyaev, I. M.: Intensification of heat and mass transfer processes in the working channel of extrusion machines during processing of Newtonian polymer liquids, Heat transfer research 36, No. 5, 359-371 (2005)
[1368] Banaszek, J.; Browne, D. J.: Modelling columnar dendritic growth into an undercooled metallic melt in the presence of convection, Materials transactions 46, No. 6, 1378-1387 (2005)
[1369] Zimmermann, G.; Weiss, A.: Directional solidification of dendritic microstructures in microgravity and with forced melt flow, Microgravity science and technology 15, No. 1, 143-147 (2005)
[1370] Bellet, M.; Jaouen, O.; Poitrault, I.: An ALE-FEM approach to the thermomechanics of solidification processes with application to the prediction of pipe shrinkage, International journal of numerical methods for heat and fluid flow 15, No. 2, 120-142 (2005)
[1371] Cholewa, M.: Simulation of composite microregions solidification process, Journal of materials processing technology 164 – 165, 1175-1180 (2005)
[1372] De Souza, E. N.: Factors affecting solidification thermal variables along the cross-section of horizontal cylindrical ingots, Materials science and engineering A 397, No. 1 – 2, 239-248 (2005)
[1373] De Souzar, S. I. S.; Vielmo, H. A.: Numerical analysis of water melting and solidification in the interior of tubes, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 2, 119-131 (2005)
[1374] Ferreira, I. L.: The effect of melt temperature profile on the transient metal/mold heat transfer coefficient during solidification, Materials science and engineering A 408, No. 1 – 2, 317-325 (2005)
[1375] Kulkarni, S. N.; Radhakrishna, K.: Evaluation of metal-mould interfacial heat transfer during the solidification of aluminium -4.5% copper alloy castings cast in CO 2-sand moulds, Materials science- Poland 23, No. 3, 821-838 (2005)
[1376] Ganapathysubramanian, B.; Zabaras, N.: On the control of solidification using magnetic fields and magnetic field gradients, International journal of heat and mass transfer 48, No. 19-20, 4174-4189 (2005) · Zbl 1188.76268
[1377] Gnauk, J.; Wenke, R.; Frommeyer, G.: Macroscopic modeling of solidification processes by performing the generalized enthalpy method, Materials science and engineering A 413 – 414, 490-496 (2005)
[1378] Holmes, A. M.: Vertical gradient freezing using submerged heater growth with rotation and with weak magnetic and electric fields, International journal of heat and fluid flow 26, No. 5, 792-800 (2005)
[1379] Le Goff, R.: Study and modeling of heat transfer during the solidification of semi-crystalline polymers, International journal of heat and mass transfer 48, No. 25-26, 5417-5430 (2005)
[1380] Slodicka, M.; De Schepper, H.: Determination of the heat-transfer coefficient during solidification of alloys, Computer methods in applied mechanics and engineering 194, No. 2-5 SPEC. ISS., 491-498 (2005) · Zbl 1086.76073
[1381] Tin, S.: Integrated modeling for the manufacture of ni-based superalloy discs from solidification to final heat treatment, Metallurgical and materials transactions A: physical metallurgy and materials science 36, No. 9, 2493-2504 (2005)
[1382] Lerner, Y. S.: Solidification analysis of heat sink/chill effectiveness in of an aluminum alloy, Foundry management and technology 133, No. 3, 46-57 (2005)
[1383] Samanta, D.; Zabaras, N.: A coupled thermomechanical, thermal transport and segregation analysis of the solidification of aluminum alloys on molds of uneven topographies, Materials science and engineering A 408, No. 1 – 2, 211-226 (2005)
[1384] Venkatesan, A.; Gopinath, V. M.; Rajadurai, A.: Simulation of casting solidification and its grain structure prediction using FEM, Journal of materials processing technology 168, No. 1, 10-15 (2005)
[1385] Xu, R.; Naterer, G. F.: Deterministic physical influence control of interfacial motion in thermal processing of solidified materials, Experimental thermal and fluid science 29, No. 2, 227-238 (2005)
[1386] Geoffroy, S.; Mergui, S.; Gobin, D.: Heat and mass transfer during solidification of a binary solution from a horizontal plate, Experimental thermal and fluid science 29, No. 2, 169-178 (2005)
[1387] W. Bare et al., Unsteady bi-directional heat transfer with heat generation by crystallization in high-density polyethylene, E-Polymers, 2005.
[1388] Ginkin, V.: Mathematical model of heat and mass transfer during crystal growth process including cluster model of a melt constitution, Numerical heat transfer, part B: fundamentals 47, No. 5, 459-472 (2005)
[1389] Ginkin, V. P.: Porous solid model to describe heat-mass transfer near phase transition interface in crystal growth from melt simulations, Journal of porous media 8, No. 4, 347-354 (2005)
[1390] Taylor, P. D.; Feltham, D. L.: Multiple stationary solutions of an irradiated slab, Journal of crystal growth 276, No. 3 – 4, 688-697 (2005)
[1391] F.E. Genceli et al., 3rd generation cooled disk column crystallizer and a skid mounted unit for eutectic freeze crystallization, in VDI Berichte. 2005. p. 855-860.
[1392] Li, H.; Braun, M. J.: Numerical investigation on multi-hole baffle designs for industry hydrothermal synthesis of single crystals, Modelling and simulation in materials science and engineering 13, No. 8, 1249-1266 (2005)
[1393] Li, H.; Evans, E. A.; Wang, G. X.: Single- and multi-hole baffles - a heat transfer and fluid flow control for hydrothermal growth, Journal of crystal growth 275, No. 3 – 4, 561-571 (2005)
[1394] Shablovsky, O. N.: A thermal model of periodic crystallization, Crystallography reports 50, No. SUPPL. 1 (2005)
[1395] Strelov, V. I.: Mathematical modeling and experimental investigation of the effect of temperature gradients on crystallization processes under terrestrial and space conditions, Crystallography reports 50, No. 3, 490-498 (2005)
[1396] Timoshenko, N. N.: Effect of the growth rate on thermal conditions during the growth of single crystals with melt feeding, Crystallography reports 50, No. SUPPL.1 (2005)
[1397] Lapointe, S. J.; Ma, N.; Jr., D. W. Mueller: Growth of binary alloyed semiconductor crystals by the vertical bridgman-stockbarger process with a strong magnetic field, journal of fluids engineering, Transactions of the ASME 127, No. 3, 523-528 (2005)
[1398] Gerber, A. G.: Heat and mass transfer predictions of the early contact of a liquid metal on an intensely cooled moving substrate, International journal of heat and mass transfer 48, No. 13, 2722-2734 (2005) · Zbl 1189.76694
[1399] Milanez, M.; Naterer, G. F.: Eulerian cross-phase diffusive effects on impinging droplets and phase change heat transfer, International communications in heat and mass transfer 32, No. 3 – 4, 286-295 (2005)
[1400] Sheng, X.; Mackie, C.; Iii, C. A. Hall: Heat transfer characterization of the solidification process resulting from a spray forming process, International communications in heat and mass transfer 32, No. 7, 872-883 (2005)
[1401] Zien, T. F.: Integral solutions of droplet freezing problems in hypersonic melting ablation, Journal of thermophysics and heat transfer 19, No. 2, 245-249 (2005)
[1402] Lee, C. T. A.: The role of chemical boundary layers in regulating the thickness of continental and oceanic thermal boundary layers, Earth and planetary science letters 230, No. 3 – 4, 379-395 (2005)
[1403] Mezrhab, A.; Bouzidi, M.: Computation of view factors for surfaces of complex shape including screening effects and using a boundary element approximation, Engineering computations (Swansea, wales) 22, No. 2, 132-148 (2005) · Zbl 1191.65015
[1404] Taherian, H.; Ramiar, A.: A novel technique for radiation shape factor calculation using CAD software, Numerical heat transfer, part B: fundamentals 48, No. 4, 387-403 (2005)
[1405] Tian, W.; Chiu, W. K. S.: A two-dimensional scheme for axisymmetric radiative heat transfer using the finite-volume method, Numerical heat transfer, part B: fundamentals 47, No. 3, 199-211 (2005)
[1406] Timoshpol’skii, V. I.: Calculation of the characteristics of transfer of thermal radiation in the workspace of an annular furnace, Journal of engineering physics and thermophysics 78, No. 3, 409-421 (2005)
[1407] Sakurai, A.: Comparison of radiation element method and discrete ordinates interpolation method applied to three-dimensional radiative heat transfer, JSME international journal, series B: fluids and thermal engineering 48, No. 2, 259-264 (2005)
[1408] Baburic, M.: Application of the conservative discrete transfer radiation method to a furnace with complex geometry, Numerical heat transfer; part A: applications 48, No. 4, 297-313 (2005)
[1409] Talukdar, P.: Finite volume method in 3-D curvilinear coordinates with multiblocking procedure for radiative transport problems, International journal of heat and mass transfer 48, No. 21 – 22, 4657-4666 (2005) · Zbl 1189.80048
[1410] Qi, H.; Ruan, L. M.; Liu, L. H.: Study on the imaginary temperature of open boundary wall in cylindrical medium by partition allocation method, Journal of heat transfer 127, No. 7, 791-793 (2005)
[1411] Wang, J.; Zabaras, N.: Using Bayesian statistics in the estimation of heat source in radiation, International journal of heat and mass transfer 48, No. 1, 15-29 (2005) · Zbl 1122.80307
[1412] Krishnamoorthy, G.; Rawat, R.; Smith, P. J.: Parallel computations of radiative heat transfer using the discrete ordinates method, Numerical heat transfer, part B: fundamentals 47, No. 1, 19-38 (2005)
[1413] Chalhoub, E. S.: Discrete-ordinates solution for uncoupled multi-wavelength radiative transfer problems, Journal of quantitative spectroscopy and radiative transfer 92, No. 3, 335-349 (2005)
[1414] Daun, K. J.; Howell, J. R.: Inverse design methods for radiative transfer systems, Journal of quantitative spectroscopy and radiative transfer 93, No. 1 – 3 SPEC. ISS., 43-60 (2005)
[1415] De Abreu, M. P.: A mathematical method for solving mixed problems in multislab radiative transfer, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 4, 381-393 (2005)
[1416] Lipinski, W.; Z’graggen, A.; Steinfeld, A.: Transient radiation heat transfer within a nongray nonisothermal absorbing-emitting-scattering suspension of reacting particles undergoing shrinkage, Numerical heat transfer, part B: fundamentals 47, No. 5, 443-457 (2005)
[1417] Lipinski, W.; Steinfeld, A.: Transient radiative heat transfer within a suspension of coal particles undergoing steam gasification, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 1021-1032 (2005)
[1418] Klar, A.; Lang, J.; Seaïd, M.: Adaptive solutions of SPN-approximations to radiative heat transfer in Glass, International journal of thermal sciences 44, No. 11, 1013-1023 (2005)
[1419] Kournyts’kyi, T.; Melnik, R. V. N.; Gachkevich, A.: Thermal behavior of absorbing and scattering Glass media containing molecular water impurity, International journal of thermal sciences 44, No. 2, 107-114 (2005)
[1420] Lang, J.: Adaptive computation for boundary control of radiative heat transfer in Glass, Journal of computational and applied mathematics 183, No. 2, 312-326 (2005) · Zbl 1100.65073
[1421] Musilova, V.: Low temperature radiative properties of materials used in cryogenics, Cryogenics 45, No. 8, 529-536 (2005)
[1422] Ripoll, J. F.; Wray, A. A.: A half-moment model for radiative transfer in a 3D gray medium and its reduction to a moment model for hot, opaque sources, Journal of quantitative spectroscopy and radiative transfer 93, No. 4, 473-519 (2005)
[1423] Siedow, N.: Application of a new method for radiative heat transfer to flat Glass tempering, Journal of the American ceramic society 88, No. 8, 2181-2187 (2005)
[1424] Stepanov, A. V.; Sulzhik, N. I.; Nikolaenko, V. N.: Intensification of radiative heat transfer and development of new types of tube furnaces, Heat transfer research 36, No. 6, 475-480 (2005)
[1425] Wang, W.; Cramb, A. W.: The observation of mold flux crystallization on radiative heat transfer, ISIJ international 45, No. 12, 1864-1870 (2005)
[1426] Perez, P.: Accurate solutions for radiative heat transfer in two-dimensional axisymmetric enclosures with gas radiation and reflective surfaces, Numerical heat transfer, part B: fundamentals 47, No. 1, 39-63 (2005)
[1427] Fumeron, S.; Charette, A.; Ben-Abdallah, P.: Spectral and refractive effects in non-stationary radiative transfer: a theoretical study in dense media, Journal of quantitative spectroscopy and radiative transfer 95, No. 1, 33-47 (2005)
[1428] Liu, L. H.: Finite element solution of radiative transfer across a slab with variable spatial refractive index, International journal of heat and mass transfer 48, No. 11, 2260-2265 (2005) · Zbl 1189.78055
[1429] Yi, H. L.: Effects of graded refractive index on steady and transient heat transfer inside a scattering semitransparent slab, Journal of quantitative spectroscopy and radiative transfer 96, No. 3 – 4, 363-381 (2005)
[1430] An, W.: Finite element method for radiative heat transfer in absorbing and anisotropic scattering media, Journal of quantitative spectroscopy and radiative transfer 96, No. 3 – 4, 409-422 (2005)
[1431] Jones, M. R.: Identification of appropriate source models for accurate diffusion modeling of radiative transfer in a non-absorbing foam layer, Journal of quantitative spectroscopy and radiative transfer 93, No. 1 – 3 SPEC. ISS., 125-137 (2005)
[1432] Prosuntsov, P. V.: Parametric identification of thermophysical properties of highly porous partially transparent materials based on the solution of a two-dimensional problem of radiative-conductive heat transfer, Heat transfer research 36, No. 6, 481-499 (2005)
[1433] Tagne, H. T. K.; Baillis, D. D.: Radiative heat transfer using isotropic scaling approximation: application to fibrous medium, Journal of heat transfer 127, No. 10, 1115-1123 (2005)
[1434] Zorzano, M. P.; Mancho, A. M.; Vázquez, L.: Numerical integration of the discrete-ordinate radiative transfer equation in strongly non-homogeneous media, Applied mathematics and computation 164, No. 1, 263-274 (2005) · Zbl 1067.65152
[1435] Chowdhury, H.: Radiative heat transfer across Glass coated with gold nano-particles, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 70-75 (2005)
[1436] Coquard, R.; Baillis, D.: Radiative characteristics of beds of spheres containing an absorbing and scattering medium, Journal of thermophysics and heat transfer 19, No. 2, 226-234 (2005)
[1437] El-Wakil, S. A.; Elgarayhi, A.; Elhanbaly, A.: Transmission of radiation through an aerosol medium, Journal of quantitative spectroscopy and radiative transfer 93, No. 4, 521-530 (2005)
[1438] Prasher, R.: Modification of Planck blackbody emissive power and intensity in particulate media due to multiple and dependent scattering, Journal of heat transfer 127, No. 8, 903-910 (2005)
[1439] Wang, F.: Effects of multiple scattering on radiative transfer in gas-particles media, Zhongguo dianji gongcheng xuebao/Proceedings of the chinese society of electrical engineering 25, No. 3, 135-140 (2005)
[1440] Caldas, M.; Semiao, V.: Entropy generation through radiative transfer in participating media: analysis and numerical computation, Journal of quantitative spectroscopy and radiative transfer 96, No. 3 – 4, 423-437 (2005)
[1441] Coelho, P. J.: Fundamentals of a new method for the solution of the radiative transfer equation, International journal of thermal sciences 44, No. 9, 809-821 (2005)
[1442] Coelho, P. J.: A hybrid finite volume/finite element discretization method for the solution of the radiative heat transfer equation, Journal of quantitative spectroscopy and radiative transfer 93, No. 1 – 3 SPEC. ISS., 89-101 (2005)
[1443] Cui, X.; Li, B. Q.: A mixed-mesh and new angular space discretization scheme of discontinuous finite element method for three-dimensional radiative transfer in participating media, Journal of heat transfer 127, No. 11, 1236-1244 (2005)
[1444] Furmanski, P.; Banaszek, J.: Some new computational models of radiative heat transfer in participating media, Progress in computational fluid dynamics 5, No. 3-5, 222-229 (2005) · Zbl 1189.76743
[1445] Kim, M. Y.; Baek, S. W.: Modeling of radiative heat transfer in an axisymmetric cylindrical enclosure with participating medium, Journal of quantitative spectroscopy and radiative transfer 90, No. 3-4, 377-388 (2005)
[1446] Mazumder, S.: A new numerical procedure for coupling radiation in participating media with other modes of heat transfer, Journal of heat transfer 127, No. 9, 1037-1045 (2005)
[1447] Shestakov, A. I.; Bolstad, J. H.: An exact solution for the linearized multifrequency radiation diffusion equation, Journal of quantitative spectroscopy and radiative transfer 91, No. 2, 133-153 (2005)
[1448] Ramos, J. I.: Convection and radiation effects in hollow, compound optical fibers, International journal of thermal sciences 44, No. 9, 832-850 (2005)
[1449] Sarma, D.; Mishra, S. C.; Mahanta, P.: Analysis of collimated radiation in participating media using the discrete transfer method, Journal of quantitative spectroscopy and radiative transfer 96, No. 1, 123-135 (2005)
[1450] Bril, A. I.: Influence of turbulence on transfer of thermal radiation in hydrogen diffusion flames, Heat transfer research 36, No. 6, 507-515 (2005)
[1451] Eriksson, M.; Golriz, M. R.: Radiation heat transfer in circulating fluidized bed combustors, International journal of thermal sciences 44, No. 4, 399-409 (2005)
[1452] Han, C. Y.; Baek, S. W.: Radiation affected ignition and flame propagation for solid fuel in a cylindrical enclosure, Combustion theory and modelling 9, No. 1, 49-76 (2005) · Zbl 1116.80310
[1453] Ilbas, M.: The effect of thermal radiation and radiation models on hydrogen-hydrocarbon combustion modelling, International journal of hydrogen energy 30, No. 10, 1113-1126 (2005)
[1454] Tseng, C. C.; Viskanta, R.: Effect of radiation absorption on fuel droplet evaporation, Combustion science and technology 177, No. 8, 1511-1542 (2005)
[1455] Dems, K.; Korycki, R.: Sensitivity analysis and optimal design for steady conduction problem with radiative heat transfer, Journal of thermal stresses 28, No. 2, 213-232 (2005)
[1456] Guedri, K.; Borjini, M. N.; Farhat, H.: Modelization of combined radiative and conductive heat transfer in three-dimensional complex enclosures, International journal of numerical methods for heat and fluid flow 15, No. 3, 257-276 (2005)
[1457] Liu, K. C.; Lin, C. N.; Wang, J. S.: Numerical solutions for the hyperbolic heat conduction problems in a layered solid cylinder with radiation surface, Applied mathematics and computation 164, No. 3, 805-820 (2005) · Zbl 1070.65103
[1458] Mahapatra, S. K.; Nanda, P.; Sarkar, A.: Analysis of coupled conduction and radiation heat transfer in presence of participating medium- using a hybrid method, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 10, 890-898 (2005)
[1459] Mishra, S. C.; Lankadasu, A.; Beronov, K. N.: Application of the lattice Boltzmann method for solving the energy equation of a 2-D transient conduction-radiation problem, International journal of heat and mass transfer 48, No. 17, 3648-3659 (2005) · Zbl 1189.80052
[1460] Sadooghi, P.: Transient coupled radiative and conductive heat transfer in a semitransparent layer of ceramic, Journal of quantitative spectroscopy and radiative transfer 92, No. 4, 403-416 (2005)
[1461] Sadooghi, P.: Transient combined radiative and conductive heat transfer in plastics, Journal of vinyl and additive technology 11, No. 1, 28-37 (2005)
[1462] Sharbati, E.; Safavisohi, B.; Aghanajafi, C.: Transient heat transfer analysis of a layer by considering the effect of radiation, Journal of fusion energy 23, No. 3, 207-215 (2004)
[1463] Yi, H. L.; Tan, H. P.; Lu, Y. P.: Effect of reflecting modes on combined heat transfer within an anisotropic scattering slab, Journal of quantitative spectroscopy and radiative transfer 95, No. 1, 1-20 (2005)
[1464] Ogulu, A.; Motsa, S.: Radiative heat transfer to magneto-hydrodynamic Couette flow with variable wall temperature, Physica scripta 71, No. 4, 336-339 (2005)
[1465] Taylor, P. D.; Feltham, D. L.: Multiple stationary solutions of an irradiated slab, Journal of crystal growth 276, No. 3-4, 688-697 (2005)
[1466] Abramzon, B.; Sazhin, S.: Droplet vaporization model in the presence of thermal radiation, International journal of heat and mass transfer 48, No. 9, 1868-1873 (2005) · Zbl 1189.76616
[1467] Andrews, J.; Akbarzadeh, A.: Enhancing the thermal efficiency of solar ponds by extracting heat from the gradient layer, Solar energy 78, No. 6, 704-716 (2005)
[1468] Bahlaoui, A.; Raji, A.; Hasnaoui, M.: Multiple steady state solutions resulting from coupling between mixed convection and radiation in an inclined channel, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 10, 899-908 (2005)
[1469] Boetcher, S. K. S.; Sparrow, E. M.; Abraham, J. P.: Numerical simulation of the radiative heating of a moving sheet, Numerical heat transfer; part A: applications 47, No. 1, 1-25 (2005)
[1470] Chen, X.; Sutton, W. H.: Enhancement of heat transfer: combined convection and radiation in the entrance region of circular ducts with porous inserts, International journal of heat and mass transfer 48, No. 25-26, 5460-5474 (2005) · Zbl 1188.76250
[1471] Kobus, C. J.; Oshio, T.: Predicting the thermal performance characteristics of staggered vertical pin fin array heat sinks under combined mode radiation and mixed convection with impinging flow, International journal of heat and mass transfer 48, No. 13, 2684-2696 (2005) · Zbl 1189.76493
[1472] Li, H. Y.; Chao, S. M.; Tsai, G. L.: Thermal performance measurement of heat sinks with confined impinging jet by infrared thermography, International journal of heat and mass transfer 48, No. 25-26, 5386-5394 (2005)
[1473] Machuev, Y. I.: Heat transfer in a cylindrical air gap for stepwise heat release of the inner cylinder, Heat transfer research 36, No. 6, 461-466 (2005)
[1474] Jr., D. W. Mueller; Abu-Mulaweh, H. I.: Heat-transfer coefficient for a long fin cooled by convection and radiation, Journal of thermophysics and heat transfer 19, No. 4, 583-586 (2005)
[1475] Ogulu, A.: The influence of radiation absorption on unsteady free convection and mass transfer flow of a polar fluid in the presence of a uniform magnetic field, International journal of heat and mass transfer 48, No. 23-24, 5078-5080 (2005) · Zbl 1189.76557
[1476] Selcuk, N.: Transient simulation of radiating flows, Journal of quantitative spectroscopy and radiative transfer 93 (1-3 SPEC. ISS.), 151-161 (2005)
[1477] Woche, H.; Specht, E.; Schmidt, J.: Local heat transfer in tubes after sudden change of diameter, Chemical engineering and technology 28, No. 6, 677-683 (2005)
[1478] Bellache, O.; Ouzzane, M.; Galanis, N.: Coupled conduction, convection, radiation heat transfer with simultaneous mass transfer in ice rinks, Numerical heat transfer, part A: applications 48, No. 3, 219-238 (2005)
[1479] Brun, J. L.; Pacheco, A. F.: Reducing the heat transfer through a wall, European journal of physics 26, No. 1, 11-18 (2005) · Zbl 1099.80003
[1480] Cui, X.; Li, B. Q.: A discontinuous finite-element formulation for radiative transfer in axisymmetric finite cylindrical enclosures and coupling with other mode heat transfer, Numerical heat transfer, part B: fundamentals 48, No. 4, 317-344 (2005)
[1481] Dhinsa, K.; Bailey, C.; Pericleous, K.: Investigation into the performance of turbulence models for fluid flow and heat transfer phenomena in electronic applications, IEEE transactions on components and packaging technologies 28, No. 4, 686-699 (2005)
[1482] Naylor, D.; Collins, M.: Evaluation of an approximate method for predicting the U value of a window with a between-panes blind, Numerical heat transfer; part A: applications 47, No. 3, 233-250 (2005)
[1483] Rao, C. G.; Krishna, A. V.; Srinivas, P. N.: Simulation studies on multimode heat transfer from a square-shaped electronic device with multiple discrete heat sources, Numerical heat transfer; part A: applications 48, No. 5, 427-446 (2005)
[1484] Strand, R. K.; Baumgartner, K. T.: Modeling radiant heating and cooling systems: integration with a whole-building simulation program, Energy and buildings 37, No. 4, 389-397 (2005)
[1485] Tang, L.; Joshi, Y. K.: A multi-grid based multi-scale thermal analysis approach for combined mixed convection, conduction, and radiation due to discrete heating, Journal of heat transfer 127, No. 1, 18-26 (2005)
[1486] Abulwafa, E. M.: Time-dependent radiative transfer through thin films: Chapman-Enskog- maximum entropy method, Journal of physics D: Applied physics 38, No. 18, 3469-3479 (2005)
[1487] Jin, E. X.; Xu, X.: Radiation transfer through nanoscale apertures, Journal of quantitative spectroscopy and radiative transfer 93 (1-3 SPEC. ISS.), 163-173 (2005)
[1488] Kurosaki, Y.: Radiative heat transfer in plastic welding process, Journal of quantitative spectroscopy and radiative transfer 93 (1-3 SPEC. ISS.), 25-41 (2005)
[1489] Musella, M.; Tschudi, H. R.: Transient radiative and conductive heat transfer in ceramic materials subjected to laser heating, International journal of thermophysics 26, No. 4, 981-999 (2005)
[1490] Nakamura, Y.; Kashiwagi, T.; Poly(methyl Methacrylate) Sheet By A. Laser: 1. Theoretical Prediction, Effects Of Sample Orientation On Nonpiloted Ignition Of Thin: Combustion and flame, Combustion and flame 141, No. 1-2, 149-169 (2005)
[1491] Ang, W. T.: A time-stepping dual-reciprocity boundary element method for anisotropic heat diffusion subject to specification of energy, Applied mathematics and computation 162, No. 2, 661-678 (2005) · Zbl 1063.65108
[1492] Antonio, J.: Benchmark solutions for three-dimensional transient heat transfer in two-dimensional environments via the time Fourier transform, Computers, materials and continua 2, No. 1, 1-11 (2005) · Zbl 1107.80011
[1493] Aziz, A.; Mcfadden, G.: Some new solutions for extended surface heat transfer using symbolic algebra, Heat transfer engineering 26, No. 9, 30-40 (2005)
[1494] Beccali, G.: Single thermal zone balance solved by transfer function method, Energy and buildings 37, No. 12, 1268-1277 (2005)
[1495] Cabeza, J. M. G.; García, J. A. M.; Rodríguez, A. C.: A sequential algorithm of inverse heat conduction problems using singular value decomposition, International journal of thermal sciences 44, No. 3, 235-244 (2005)
[1496] Campo, A.; Amon, C. H.: Remarkable improvement of the lévêque solution for isoflux heating with a combination of the transversal method of lines (TMOL) and a computer-extended Frobenius power series, International journal of heat and mass transfer 48, No. 10, 2110-2116 (2005) · Zbl 1189.76384
[1497] Chang, M. H.: A decomposition solution for fins with temperature dependent surface heat flux, International journal of heat and mass transfer 48, No. 9, 1819-1824 (2005) · Zbl 1189.76519
[1498] Chantasiriwan, S.: Two Cartesian grid methods for solving the Poisson problem in an arbitrary domain, Numerical heat transfer, part B: fundamentals 47, No. 3, 291-302 (2005)
[1499] Chen, B.; Tong, L.: Thermomechanically coupled sensitivity analysis and design optimization of functionally graded materials, Computer methods in applied mechanics and engineering 194, No. 18-20, 1891-1911 (2005) · Zbl 1092.74033
[1500] Chen, G.: An improved method to estimate temperatures and lethality during the cooling stage of sterilized cylindrical cans, Food and bioproducts processing 83, No. 1 C, 36-42 (2005)
[1501] Divo, E.; Kassab, A. J.: A meshless method for conjugate heat transfer problems, Engineering analysis with boundary elements 29, No. 2, 136-149 (2005) · Zbl 1182.76925
[1502] Divo, E.: Retrieval of multidimensional heat transfer coefficient distributions using an inverse BEM-based regularized algorithm: numerical and experimental results, Engineering analysis with boundary elements 29, No. 2, 150-160 (2005) · Zbl 1182.80013
[1503] Engl, H. W.; Fusek, P.; Pereverzev, S. V.: Natural linearization for the identification of nonlinear heat transfer laws, Journal of inverse and ill-posed problems 13, No. 3-6, 567-582 (2005) · Zbl 1095.35067
[1504] Ghodoossi, L.; E&gbreve, N.; Rican: Prediction of heat transfer characteristics in rectangular microchannels for slip flow regime and H1 boundary condition, International journal of thermal sciences 44, No. 6, 513-520 (2005)
[1505] Gordon, R.; Levy, Y.: Optimization of wall cooling in gas turbine combustor through three-dimensional numerical simulation, Journal of engineering for gas turbines and power 127, No. 4, 704-723 (2005)
[1506] Huo, Y.; Li, B. Q.: Boundary/finite element modeling of three-dimensional electromagnetic heating during microwave food processing, Journal of heat transfer 127, No. 10, 1159-1166 (2005)
[1507] Jovanovic, B. S.; Vulkov, L. G.: Stability of difference schemes for parabolic equations with dynamical boundary conditions and conditions on conjugation, Applied mathematics and computation 163, No. 2, 849-868 (2005) · Zbl 1081.65089
[1508] Liu, G. R.: Inverse identification of thermal parameters using reduced-basis method, Computer methods in applied mechanics and engineering 194, No. 27-29, 3090-3107 (2005) · Zbl 1137.74361
[1509] Mabrouk, M.: Homogenization of a non-linear degenerate parabolic problem in a highly heterogeneous periodic medium, Mathematical methods in the applied sciences 28, No. 10, 1141-1171 (2005) · Zbl 1065.35048
[1510] Majumdar, P.; Jayaramachandran, R.; Ganesan, S.: Finite element analysis of temperature rise in metal cutting processes, Applied thermal engineering 25, No. 14-15, 2152-2168 (2005)
[1511] Marin, L.: Detection of cavities in Helmholtz-type equations using the boundary element method, Computer methods in applied mechanics and engineering 194, No. 36-38, 4006-4023 (2005) · Zbl 1097.80004
[1512] Marin, L.: Numerical solution of the Cauchy problem for steady-state heat transfer in two-dimensional functionally graded materials, International journal of solids and structures 42, No. 15, 4338-4351 (2005) · Zbl 1120.80308
[1513] Monroe, C.; Newman, J.: A method for determining self-similarity: transient heat transfer with constant flux, Chemical engineering education 39, No. 1, 42-47 (2005)
[1514] Ochiai, Y.: Three-dimensional steady thermal stress analysis by triple-reciprocity boundary element method, International journal for numerical methods in engineering 63, No. 12, 1741-1756 (2005) · Zbl 1131.74343
[1515] Sarikaya, O.; Islamoglu, Y.; Celik, E.: Finite element modeling of the effect of the ceramic coatings on heat transfer characteristics in thermal barrier applications, Materials and design 26, No. 4, 357-362 (2005)
[1516] Sarvari, S. M. H.: Inverse determination of heat source distribution in conductive-radiative media with irregular geometry, Journal of quantitative spectroscopy and radiative transfer 93 (1-3 SPEC. ISS.), 383-395 (2005)
[1517] Seaid, M.; Klar, A.; Pinnau, R.: Numerical solvers for radiation and conduction in high temperature gas flows, flow, Turbulence and combustion 75, No. 1-4, 173-190 (2005) · Zbl 1331.80018
[1518] Xu, H.; Zhang, C.; Barron, R.: A new numerical approach to solve an elliptic equation, Applied mathematics and computation 171, No. 1, 1-4 (2005) · Zbl 1084.65104
[1519] Yan, X.: Finite element formulation of a heat transfer problem for an axisymmetric composite structure, Computational mechanics 36, No. 1, 76-82 (2005) · Zbl 1103.80006
[1520] Yang, C. Y.: Estimation of the periodic thermal conditions on the non-Fourier fin problem, International journal of heat and mass transfer 48, No. 17, 3506-3515 (2005) · Zbl 1189.80042
[1521] Yang, H. T.; Liu, Y.; Wu, R. F.: Solving 2-D nonlinear coupled heat and moisture transfer problems via a self-adaptive precise algorithm in time domain, Applied mathematics and mechanics (English edition) 26, No. 7, 848-854 (2005) · Zbl 1144.80360
[1522] Yang, Y. C.: Numerical analysis of two dimensional pin fins with non-constant base heat flux, Energy conversion and management 46, No. 6, 881-892 (2005)
[1523] Yavuzturk, C.; Ksaibati, K.; Chiasson, A. D.: Assessment of temperature fluctuations in asphalt pavements due to thermal environmental conditions using a two-dimensional, transient finite-difference approach, Journal of materials in civil engineering 17, No. 4, 465-475 (2005)
[1524] Yilbas, B. S.; Pakdemirli, M.; Mansoor, S. B.: Analytical solution for temperature field in thin film initially heated by a short-pulse laser source, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1077-1084 (2005)
[1525] Yumrutas, R.; Ünsal, M.; Kanoglu, M.: Periodic solution of transient heat flow through multilayer walls and flat roofs by complex finite Fourier transform technique, Building and environment 40, No. 8, 1117-1125 (2005)
[1526] Zhang, Y. M.; Song, Y. P.; Zhao, Y. F.: Finite element analysis and linear regression of maximum temperature for inner wall of chimney foundation, Journal of China university of mining and technology 15, No. 3, 234-240 (2005)
[1527] Battaglia, J. L.; Puigsegur, L.; Cahuc, O.: Estimated temperature on a machined surface using an inverse approach, Experimental heat transfer 18, No. 1, 13-32 (2005)
[1528] Vuyst, De T.: Finite element modelling of friction stir welding of aluminium alloy plates-inverse analysis using a genetic algorithm, Welding in the world 49, No. 3-4, 47-55 (2005)
[1529] Dong, Z.; Wei, Y.; Liu, R.: Three dimensional numerical simulation for the driving force of weld solidification cracking, Journal of materials science and technology 21, No. 3, 399-402 (2005)
[1530] Ki, H.; Mohanty, P. S.; Mazumder, J.: A numerical method for multiphase incompressible thermal flows with solid-liquid and liquid-vapor phase transformations, Numerical heat transfer, part B: fundamentals 48, No. 2, 125-145 (2005)
[1531] Luo, X. Y.: Numerical modeling for multiphase incompressible flow with phase change, Numerical heat transfer, part B: fundamentals 48, No. 5, 425-444 (2005)
[1532] Shin, S.; Abdel-Khalik, S. I.; Juric, D.: Direct three-dimensional numerical simulation of nucleate boiling using the level contour reconstruction method, International journal of multiphase flow 31, No. 10-11, 1231-1242 (2005) · Zbl 1388.76106
[1533] Aubry, R.; Idelsohn, S. R.; Oñate, E.: Particle finite element method in fluid-mechanics including thermal convection-diffusion, Computers and structures 83, No. 17-18, 1459-1475 (2005)
[1534] Wansophark, N.; Malatip, A.; Dechaumphai, P.: Streamline upwind finite element method for conjugate heat transfer problems, Acta mechanica sinica/lixue xuebao 21, No. 5, 436-443 (2005) · Zbl 1200.76123
[1535] Al-Saif, A. S. J.; Zhu, Z. Y.: Differential quadrature method for steady flow of an incompressible second-order viscoelastic fluid and heat transfer model, Journal of Shanghai university 9, No. 4, 298-305 (2005) · Zbl 1155.76370
[1536] Al-Saif, A. S. J.; Zhu, Z. Y.: Numerical simulation of flows for second-order viscoelastic fluid coupled with heat transfer by differential quadrature method, Journal of hydrodynamics 17, No. 2, 209-215 (2005) · Zbl 1207.76004
[1537] Amaouche, M.; Bouda, F. N.; Sadat, H.: The onset of thermal instability of a two-dimensional hydromagnetic stagnation point flow, International journal of heat and mass transfer 48, No. 21-22, 4435-4445 (2005) · Zbl 1189.76240
[1538] Amara, M.: Numerical modelling of flow with heat transfer in petroleum reservoirs, International journal for numerical methods in fluids 47, No. 8-9, 955-962 (2005) · Zbl 1134.76466
[1539] Arefmanesh, A.; Najafi, M.; Abdi, H.: A meshless local Petrov-Galerkin method for fluid dynamics and heat transfer applications, Journal of fluids engineering, transactions of the ASME 127, No. 4, 647-655 (2005)
[1540] Berthelsen, P. A.; Ytrehus, T.: Calculations of stratified wavy two-phase flow in pipes, International journal of multiphase flow 31, No. 5, 571-592 (2005) · Zbl 1135.76358
[1541] Byvaltsev, P. M.; Kawaike, K.: A comparative study of two transition zone models in heat transfer predictions, Journal of turbomachinery 127, No. 1, 230-239 (2005)
[1542] Chen, C. S.: Numerical analysis of heat transfer for steady three-dimensional compressible flow in long microchannels, Journal of enhanced heat transfer 12, No. 2, 171-188 (2005)
[1543] Colin, E.: Application of a sensitivity equation method to turbulent flows with heat transfer, International journal of thermal sciences 44, No. 11, 1024-1038 (2005)
[1544] Hanjalic, K.: Will RANS survive LES A view of perspectives, journal of fluids engineering, Transactions of the ASME 127, No. 5, 831-839 (2005)
[1545] He, Q.: DSMC simulation of low-speed gas flow and heat transfer in 2D rectangular micro-channel, Progress in computational fluid dynamics 5, No. 3-5, 230-235 (2005) · Zbl 1189.76422
[1546] Horvat, A.; Mavko, B.; Catton, I.: The Galerkin method solution of the conjugate heat transfer problems for the cross-flow conditions, Strojniski vestnik/journal of mechanical engineering 51, No. 7-8, 527-533 (2005)
[1547] Ikegawa, M.; Kaiho, M.; Hayasaka, A.: Advanced numerical simulation of heat transfer problems, International journal for numerical methods in fluids 47, No. 6-7, 561-574 (2005) · Zbl 1134.80302
[1548] Jia, R.; Sundén, B.: Performance of a pressure-based unstructured code and a multi-block structured code for heat transfer and fluid flow, Progress in computational fluid dynamics 5, No. 3-5, 171-180 (2005) · Zbl 1189.76350
[1549] Jiang, F.; Oliveira, M. S. A.; Sousa, A. C. M.: SPH simulation of low Reynolds number planar shear flow and heat convection, Materialwissenschaft und werkstofftechnik 36, No. 10, 613-619 (2005)
[1550] Kim, K. Y.; Seo, J. W.: Numerical optimization for the design of a spacer grid with mixing vanes in a pressurized water reactor fuel assembly, Nuclear technology 149, No. 1, 62-70 (2005)
[1551] Wang, S. Kong: A numerical study of the enhancement of chip cooling via a flow-disturbing obstruction block, Journal of electronic packaging, transactions of the ASME 127, No. 4, 523-529 (2005)
[1552] Koshimizu, T.: Numerical simulation of heat and fluid flow in basic pulse tube refrigerator, International journal of numerical methods for heat and fluid flow 15, No. 7, 617-630 (2005)
[1553] Kuo, B. L.: Heat transfer analysis for the Falkner-Skan wedge flow by the differential transformation method, International journal of heat and mass transfer 48, No. 23-24, 5036-5046 (2005) · Zbl 1189.76141
[1554] Lacanette, D.: Numerical simulation of gas-jet wiping in steel strip galvanizing process, ISIJ international 45, No. 2, 214-220 (2005)
[1555] Liu, N. S.; Lu, X. Y.: Large eddy simulation of turbulent flows in a rotating concentric annular channel, International journal of heat and fluid flow 26, No. 3, 378-392 (2005)
[1556] Liu, X. L.; Tao, W. Q.; He, Y. L.: A simple method for improving the SIMPLER algorithm for numerical simulations of incompressible fluid flow and heat transfer problems, Engineering computations (Swansea, wales) 22, No. 8, 921-939 (2005) · Zbl 1191.76070
[1557] Lo, D. C.; Young, D. L.; Lin, Y. C.: Finite-element analysis of 3-D viscous flow and mixed-convection problems by the projection method, Numerical heat transfer; part A: applications 48, No. 4, 339-358 (2005)
[1558] Mare, T.: Mixed convection with flow reversal in the entrance region of inclined tubes, International journal of numerical methods for heat and fluid flow 15, No. 7, 740-756 (2005)
[1559] Minakuch, H.: A three-dimensional numerical simulation study for the cathode side of a fuel cell, Electrochemistry 73, No. 3, 182-188 (2005)
[1560] Nakayama, A.; Kuwahara, F.: A quasi-three-dimensional numerical calculation procedure for periodically fully-developed heat and fluid flow, International journal of numerical methods for heat and fluid flow 15, No. 4, 379-393 (2005)
[1561] Nakayama, A.; Kuwahara, F.; Kamiya, Y.: A two-dimensional numerical procedure for a three dimensional internal flow through a complex passage with a small depth (its application to numerical analysis of fluidic oscillators), International journal of numerical methods for heat and fluid flow 15, No. 8, 863-871 (2005)
[1562] Oztop, H. F.: Numerical study of flow and heat transfer in curvilinear ducts: applications of elliptic grid generation, Applied mathematics and computation 168, No. 2, 1449-1460 (2005) · Zbl 1160.76388
[1563] Pacheco, J. R.: Numerical simulations of heat transfer and fluid flow problems using an immersed-boundary finite-volume method on nonstaggered grids, Numerical heat transfer part B: fundamentals 48, No. 1, 1-24 (2005)
[1564] Qu, Z. G.; Tao, W. Q.; He, Y. L.: Implementation of CLEAR algorithm on collocated grid system and application examples, Numerical heat transfer, part B: fundamentals 47, No. 1, 65-96 (2005)
[1565] Roy, S.: Recent advances in numerical methods for fluid dynamics and heat transfer, Journal of fluids engineering, transactions of the ASME 127, No. 4, 629-630 (2005)
[1566] Saha, A. K.; Acharya, S.: Unsteady RANS simulation of turbulent flow and heat transfer in ribbed coolant passages of different aspect ratios, International journal of heat and mass transfer 48, No. 23-24, 4704-4725 (2005) · Zbl 1189.76276
[1567] Saha, A. K.; Acharya, S.: Flow and heat transfer in an internally ribbed duct with rotation: an assessment of large eddy simulations and unsteady Reynolds-averaged Navier-Stokes simulations, Journal of turbomachinery 127, No. 2, 306-320 (2005)
[1568] Sakalis, V. D.; Hatzikonstantinou, P. M.: A numerical procedure for the laminar heat transfer in curved square ducts, Numerical heat transfer, part B: fundamentals 47, No. 2, 135-155 (2005)
[1569] Salama, A. A.; Mansour, A. A.: Fourth-order finite-difference method for third-order boundary-value problems, Numerical heat transfer, part B: fundamentals 47, No. 4, 383-401 (2005)
[1570] Sharma, P. R.; Ariel, P. D.; Kumar, H.: Numerical solution of flow and heat transfer of a non-Newtonian fluid over a stretching sheet, Modelling, measurement and control B 74, No. 1, 45-62 (2005)
[1571] Sugawara, K.; Yoshikawa, H.; Ota, T.: LES of turbulent separated flow and heat transfer in a symmetric expansion plane channel, Journal of fluids engineering, transactions of the ASME 127, No. 5, 865-871 (2005)
[1572] Sveningsson, A.; Davidson, L.: Computations of flow field and heat transfer in a stator vane passage using the V2-F turbulence model, Journal of turbomachinery 127, No. 3, 627-634 (2005)
[1573] Tafti, D. K.: Evaluating the role of subgrid stress modeling in a ribbed duct for the internal cooling of turbine blades, International journal of heat and fluid flow 26, No. 1, 92-104 (2005)
[1574] Tao, W. Q.: Some recent advances in finite volume approach and their applications in the study of heat transfer enhancement, International journal of thermal sciences 44, No. 7, 623-643 (2005)
[1575] Valko, P. P.: Solution of the graetz-Brinkman problem with the Laplace transform Galerkin method, International journal of heat and mass transfer 48, No. 9, 1874-1882 (2005) · Zbl 1189.76507
[1576] Wang, L.; Dong, Y. H.; Lu, X. Y.: An investigation of turbulent open channel flow with heat transfer by large eddy simulation, Computers and fluids 34, No. 1, 23-47 (2005) · Zbl 1115.76337
[1577] Wang, L.; Lu, X. Y.: Large eddy simulation of stably stratified turbulent open channel flows with low- to high-Prandtl number, International journal of heat and mass transfer 48, No. 10, 1883-1897 (2005) · Zbl 1189.76323
[1578] Zhang, J.: Simulation of swirling turbulent heat transfer in a vortex heat exchanger, Numerical heat transfer; part A: applications 48, No. 7, 607-625 (2005)
[1579] Date, A. W.; Discretization, Solution Of Transport Equations On Unstructured Meshes With Cell-Centered Colocated Variables. Part I:: International journal of heat and mass transfer, International journal of heat and mass transfer 48, No. 6, 1117-1127 (2005) · Zbl 1189.76348
[1580] Ding, H.: Simulation of natural convection in eccentric annuli between a square outer cylinder and a circular inner cylinder using local MQ-DQ method, Numerical heat transfer; part A: applications 47, No. 3, 291-313 (2005)
[1581] Kenjeres, S.; Gunarjo, S. B.; Hanjalic, K.: Contribution to elliptic relaxation modelling of turbulent natural and mixed convection, International journal of heat and fluid flow 26 (4 SPEC. ISS.), 569-586 (2005)
[1582] Arunasalam, P.; Seetharamu, K. N.; Azid, I. A.: Determination of thermal compact model via evolutionary genetic optimization method, IEEE transactions on components and packaging technologies 28, No. 2, 345-352 (2005)
[1583] Battaglia, A.; Mantovani, S.: Forward Monte Carlo computations of fully polarized microwave radiation in non-isotropic media, Journal of quantitative spectroscopy and radiative transfer 95, No. 3, 285-308 (2005)
[1584] Bechtold, T.: Connecting heat transfer macromodels for array MEMS structures, Journal of micromechanics and microengineering 15, No. 6, 1205-1214 (2005)
[1585] Ben Salah, M.; Askri, F.; Ben Nasrallah, S.: Unstructured control-volume finite-element method for radiative heat transfer in a complex 2-D geometry, Numerical heat transfer, part B: fundamentals 48, No. 5, 477-497 (2005)
[1586] Bleris, L. G.; Kothare, M. V.: Reduced order distributed boundary control of thermal transients in microsystems, IEEE transactions on control systems technology 13, No. 6, 853-867 (2005)
[1587] Chen, Y.; Liou, K. N.; Gu, Y.: An efficient diffusion approximation for 3D radiative transfer parameterization: application to cloudy atmospheres, Journal of quantitative spectroscopy and radiative transfer 92, No. 2, 189-200 (2005)
[1588] Egger, H.; Engl, H. W.; Klibanov, M. V.: Global uniqueness and hölder stability for recovering a nonlinear source term in a parabolic equation, Inverse problems 21, No. 1, 271-290 (2005) · Zbl 1086.35132
[1589] Ho, C. I.; Hung, T. C.; Hung, C. I.: Thermal analysis and optimization for a ball grid array package, Proceedings of the institution of mechanical engineers, part C: Journal of mechanical engineering science 219, No. 4, 381-393 (2005)
[1590] Weber, T.; Jóhannesson, G.: An optimized RC-network for thermally activated building components, Building and environment 40, No. 1, 1-14 (2005)
[1591] Jaklic, A.; Kolenko, T.; Zupancic, B.: The influence of the space between the billets on the productivity of a continuous walking-beam furnace, Applied thermal engineering 25, No. 5-6, 783-795 (2005)
[1592] Jeevan, K.: Optimization of thermal resistance of stacked micro-channel using genetic algorithms, International journal of numerical methods for heat and fluid flow 15, No. 1, 27-42 (2005) · Zbl 1162.76390
[1593] Koay, A. L.; Pulko, S. H.; Wilkinson, A. J.: An investigation of the effect of feedback on TLM nodes representing heat transfer, international journal of numerical modelling: electronic networks, Devices and fields 18, No. 6, 399-411 (2005) · Zbl 1095.80001
[1594] Krishnamoorthy, G.; Rawat, R.; Smith, P. J.: Parallel computations of nongray radiative heat transfer, Numerical heat transfer, part B: fundamentals 48, No. 2, 191-211 (2005)
[1595] Li, H.; Liu, B.; Chong, T. C.: Numerical simulation of slider temperature rise caused by Read/write current, Journal of applied physics 97, No. 10, 1-3 (2005)
[1596] Li, H.; Liu, B.; Chong, T. C.: Numerical simulation of thermal effects of Read current on magnetoresistive signal, Japanese journal of applied physics, part 1: regular papers and short notes and review papers 44, No. 2, 889-892 (2005)
[1597] Li, K.: Three-dimensional numerical simulation of g-jitter induced convection and solute transport in magnetic fields, International journal of numerical methods for heat and fluid flow 15, No. 8, 872-893 (2005)
[1598] Marchi, C. H.; Silva, A. F. C.: Multi-dimensional discretization error estimation for convergent apparent order, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 4, 432-439 (2005)
[1599] Mosally, F.; Wood, A. S.; Al-Fhaid, A.: On the convergence of the heat balance integral method, Applied mathematical modelling 29, No. 10, 903-912 (2005) · Zbl 1151.80329
[1600] Muwanga, R. S.: Effect of input variability on the performance of turbine blade thermal design using Monte Carlo simulation: an exploratory study, Journal of heat transfer 127, No. 4, 404-413 (2005)
[1601] Nielsen, A. E.; Moll, C. W.; Staudacher, S.: Modeling and validation of the thermal effects on gas turbine transients, Journal of engineering for gas turbines and power 127, No. 3, 564-572 (2005)
[1602] Padgett, C. W.; Brenner, D. W.: A continuum-atomistic method for incorporating joule heating into classical molecular dynamics simulations, Molecular simulation 31, No. 11, 749-757 (2005)
[1603] Papadakis, A. P.; Georghiou, G. E.; Metaxas, A. C.: Simulation for the transition from non-thermal to thermal discharges, Plasma sources science and technology 14, No. 2, 250-258 (2005)
[1604] Pepper, D. W.; Šarler, B.: Application of meshless methods for thermal analysis, Strojniski vestnik/journal of mechanical engineering 51, No. 7-8, 476-483 (2005)
[1605] Salah, M. B.: Control volume finite element method for radiation, Journal of quantitative spectroscopy and radiative transfer 92, No. 1, 9-30 (2005)
[1606] Singh, I. V.: A numerical study of weight functions, scaling, and penalty parameters for heat transfer applications, Numerical heat transfer, part A: applications 47, No. 10, 1025-1053 (2005)
[1607] Singh, I. V.; Jain, P. K.: Parallel EFG algorithm for heat transfer problems, Advances in engineering software 36, No. 8, 554-560 (2005) · Zbl 1079.80504
[1608] Temkin, D.: Ivantsov parabolic solution for two combined moving interfaces, Acta materialia 53, No. 9, 2733-2738 (2005)
[1609] Tian, W.; Chiu, W. K. S.: Hybrid method to calculate direct exchange areas using the finite volume method and midpoint intergration, Journal of heat transfer 127, No. 8, 911-917 (2005)
[1610] Yang, H.; Liu, L.: The use of cyclic symmetry in EFG analysis for heat transfer problems, International journal for numerical methods in engineering 62, No. 7, 937-951 (2005) · Zbl 1080.80014
[1611] Timoshpol’skii, V. I.: Numerical solution of the radiative-transfer equation for an absorbing, emitting, and scattering medium with a complex 3-D geometry, Journal of engineering physics and thermophysics 78, No. 1, 144-154 (2005)
[1612] Zykov, A. P.; Yakush, S. E.: Numerical modeling of compartment fires, Heat transfer research 36, No. 7, 573-584 (2005)
[1613] Adl-Zarrabi, B.: Determination of thermal conductivity: the IPS method for determining of insulation of pipes, Euroheat and power (English edition), No. 2, 40-42 (2005)
[1614] Remy, B.; Degiovanni, A.: Parameters estimation and measurement of thermophysical properties of liquids, International journal of heat and mass transfer 48, No. 19-20, 4103-4120 (2005)
[1615] Behkam, B.; Yang, Y.; Asheghi, M.: Thermal property measurement of thin aluminum oxide layers for giant magnetoresistive (GMR) head applications, International journal of heat and mass transfer 48, No. 10, 2023-2031 (2005)
[1616] Jwo, C. S.; Teng, T. P.: Experimental study on thermal properties of brines containing nanoparticles, Reviews on advanced materials science 10, No. 1, 79-83 (2005)
[1617] Dos Santos, W. N.: Thermal properties of melt polymers by the hot wire technique, Polymer testing 24, No. 7, 932-941 (2005)
[1618] Frusteri, F.: Thermal conductivity measurement of a PCM based storage system containing carbon fibers, Applied thermal engineering 25, No. 11-12, 1623-1633 (2005)
[1619] Bajons, P.; Klinger, G.; Schlosser, V.: Determination of stomatal conductance by means of infrared thermography, Infrared physics and technology 46, No. 5, 429-439 (2005)
[1620] Dos Santos, W. N.; Mummery, P.; Wallwork, A.: Thermal diffusivity of polymers by the laser flash technique, Polymer testing 24, No. 5, 628-634 (2005)
[1621] Pena-Rodriguez, G.: Thermal diffusivity and microstructure in API5L-X52 carbon steel, International journal of thermophysics 26, No. 6, 1939-1948 (2005)
[1622] Chen, Y.: Monte Carlo simulation of silicon nanowire thermal conductivity, Journal of heat transfer 127, No. 10, 1129-1137 (2005)
[1623] Hong, T. K.; Yang, H. S.; Choi, C. J.: Study of the enhanced thermal conductivity of fe nanofluids, Journal of applied physics 97, No. 6, 1-4 (2005)
[1624] Kshirsagar, B.: Thermal contact conductance across gold-coated OFHC copper contacts in different media, Journal of heat transfer 127, No. 6, 657-659 (2005)
[1625] Ziambaras, E.; Hyldgaard, P.: Thermal transport in sic nanostructures, Materials science and engineering C 25, No. 5-8, 635-640 (2005)
[1626] Sreedeep, S.; Reshma, A. C.; Singh, D. N.: Generalized relationship for determining soil electrical resistivity from its thermal resistivity, Experimental thermal and fluid science 29, No. 2, 217-226 (2005)
[1627] Fiedler, T.: Numerical and analytical calculation of the orthotropic heat transfer properties of fibre reinforced materials, Materialwissenschaft und werkstofftechnik 36, No. 10, 602-607 (2005)
[1628] Kaempfer, T. U.; Schneebeli, M.; Sokratov, S. A.: A microstructural approach to model heat transfer in snow, Geophysical research letters 32, No. 21, 1-5 (2005)
[1629] Tu, S. T.: Numerical simulation of saturation behavior of physical properties in composites with randomly distributed second-phase, Journal of composite materials 39, No. 7, 617-631 (2005)
[1630] Yang, Y.: Heat transfer properties of nanoparticle-in-fluid dispersions (nanofluids) in laminar flow, International journal of heat and mass transfer 48, No. 6, 1107-1116 (2005)
[1631] Ganapathy, D.: An effective unit cell approach to compute the thermal conductivity of composites with cylindrical particles, Journal of heat transfer 127, No. 6, 553-559 (2005)
[1632] Kumar, S.; Murthy, J. Y.: A numerical technique for computing effective thermal conductivity of fluid-particle mixtures, Numerical heat transfer, part B: fundamentals 47, No. 6, 555-572 (2005)
[1633] Lin, Z. C.; Lin, V. H.: Thermal conductivity investigation for upsetting with a procedure of combining inverse model and the proposed regularization of Tikhonov method, Journal of materials processing technology 167, No. 2-3, 208-217 (2005)
[1634] Catelani, G.; Aleiner, I. L.: Interaction corrections to thermal transport coefficients in disordered metals: the quantum kinetic equation approach, Journal of experimental and theoretical physics 100, No. 2, 331-369 (2005)
[1635] Mesalhy, O.: Numerical study for enhancing the thermal conductivity of phase change material (PCM) storage using high thermal conductivity porous matrix, Energy conversion and management 46, No. 6, 847-867 (2005)
[1636] Remy, B.; Degiovanni, A.; Maillet, D.: Measurement of the in-plane thermal diffusivity of materials by infrared thermography, International journal of thermophysics 26, No. 2, 493-505 (2005)
[1637] Sassi, L.: Hot-wire method for measuring effective thermal conductivity of porous media, Journal of porous media 8, No. 2, 97-113 (2005)
[1638] Dames, C.; Chen, G.: 1ω, 2ω, and 3ω methods for measurements of thermal properties, Review of scientific instruments 76, No. 12, 1-14 (2005)
[1639] Carson, J. K.: Thermal conductivity bounds for isotropic, porous materials, International journal of heat and mass transfer 48, No. 11, 2150-2158 (2005) · Zbl 1189.74024
[1640] Chowdhury, B.; Mojumdar, S. C.: Aspects of thermal conductivity relative to heat flow, Journal of thermal analysis and calorimetry 81, No. 1, 179-182 (2005)
[1641] Ostrowski, Z.; Białecki, R. A.; Kassab, A. J.: Estimation of constant thermal conductivity by use of proper orthogonal decomposition, Computational mechanics 37, No. 1, 52-59 (2005) · Zbl 1158.80308
[1642] Murphy, F.: Development of an algorithm to extract thermal diffusivity for the radial converging wave technique, International journal of heat and mass transfer 48, No. 7, 1395-1402 (2005) · Zbl 1189.76578
[1643] Fotsing, J. A. M.; Tchagang, C. W.: Experimental determination of the diffusion coefficients of wood in isothermal conditions, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 11, 977-980 (2005)
[1644] Costa, V. A. F.: Diffusion as the physical model for complex phenomena and even for non-diffusive phenomena: the (non) state of the art, Materialwissenschaft und werkstofftechnik 36, No. 10, 578-585 (2005)
[1645] Waliszewski, D.: Heat capacities of ionic liquids and their heats of solution in molecular liquids, Thermochimica acta 433, No. 1-2, 149-152 (2005)
[1646] Tombari, E.: Heat capacity of water in nanopores, Journal of chemical physics 123, No. 21, 1-5 (2005)
[1647] Zueco, J.; Alhama, F.; Fernández, C. F. G.: Inverse problem of estimating time-dependent heat transfer coefficient with the network simulation method, Communications in numerical methods in engineering 21, No. 1, 39-48 (2005) · Zbl 1061.65093
[1648] Burzo, M. G.; Komarov, P. L.; Raad, P. E.: Minimizing the uncertainties associated with the measurement of thermal properties by the transient thermo-reflectance method, IEEE transactions on components and packaging technologies 28, No. 1, 39-44 (2005)
[1649] Sharipov, F.; Kalempa, D.: Velocity slip and temperature jump coefficients for gaseous mixtures. IV. temperature jump coefficient, International journal of heat and mass transfer 48, No. 6, 1076-1083 (2005) · Zbl 1189.76453
[1650] Kayukawa, Y.; Fiyii, K.; Higashi, Y.: Vapor-liquid equilibrium (VLB) properties for the binary systems propane (1) + re-butane (2) and propane (1) + isobutane (3), Journal of chemical and engineering data 50, No. 2, 579-582 (2005)
[1651] Chen, J.; Wang, K. P.; Liang, M. T.: Predictions of heat transfer coefficients of supercritical carbon dioxide using the overlapped type of local neural network, International journal of heat and mass transfer 48, No. 12, 2483-2492 (2005) · Zbl 1189.80013
[1652] Zhukov, N. P.: Simulation of the heat transfer from a linear pulsed-heat source in thermophysical measurements, Journal of engineering physics and thermophysics 78, No. 3, 501-510 (2005)
[1653] Zhukov, N. P.; Mainikova, N. F.: Modeling of the process of heat transfer from a plane heat source of constant strength in thermophysical measurements, Journal of engineering physics and thermophysics 78, No. 6, 1104-1112 (2005)
[1654] Egolf, P. W.: Thermodynamics and heat transfer of ice slurries, International journal of refrigeration 28, No. 1, 51-59 (2005)
[1655] Yuan, P.: Exergy analysis on a three-gas crossflow heat exchanger with nonuniform inlet flow, International journal of heat exchangers 6, No. 1, 55-72 (2005)
[1656] Xia, Y.; Jacobi, A. M.: Air-side data interpretation and performance analysis for heat exchangers with simultaneous heat and mass transfer: wet and frosted surfaces, International journal of heat and mass transfer 48, No. 25-26, 5089-5102 (2005) · Zbl 1188.80002
[1657] Witry, A.; Al-Hajeri, M. H.: Fluid flow and heat transfer investigations in shell and dimple heat exchangers, International journal of energy research 29, No. 5, 427-438 (2005)
[1658] Shah, R. K.; Skiepko, T.: Exchanger performance behavior through irreversibility analysis for 1-2 TEMA G heat exchangers, Journal of heat transfer 127, No. 12, 1296-1304 (2005)
[1659] Navarro, H. A.; Cabezas-Gómez, L.: A new approach for thermal performance calculation of cross-flow heat exchangers, International journal of heat and mass transfer 48, No. 18, 3880-3888 (2005) · Zbl 1189.80023
[1660] Nellis, G. F.; Pfotenhauer, J. M.: Effectiveness-NTU relationship for a counterflow heat exchanger subjected to an external heat transfer, Journal of heat transfer 127, No. 9, 1071-1073 (2005)
[1661] Ng, E. Y.; Johnson, P. W.; Watkins, S.: An analytical study on heat transfer performance of radiators with non-uniform airflow distribution, Proceedings of the institution of mechanical engineers, part D: Journal of automobile engineering 219, No. 12, 1451-1467 (2005)
[1662] Kloppers, J. C.; Kroger, D. G.: Cooling tower performance evaluation: merkel, poppe, and e-NTU methods of analysis, Journal of engineering for gas turbines and power 127, No. 1, 1-7 (2005)
[1663] Kloppers, J. C.; Kroger, D. G.: A critical investigation into the heat and mass transfer analysis of counterflow wet-cooling towers, International journal of heat and mass transfer 48, No. 3-4, 765-777 (2005) · Zbl 1121.80302
[1664] Breese, J.: Pr edicting the performance of heat exchangers, HPAC heating, piping, airconditioning engineering 77, No. 1, 36-47 (2005)
[1665] Claesson, J.: Correction of logarithmic mean temperature difference in a compact brazed plate evaporator assuming heat flux governed flow boiling heat transfer coefficient, International journal of refrigeration 28, No. 4, 573-578 (2005)
[1666] Yohanis, Y. G.; Popel, O. S.; Frid, S. E.: A simplified method of calculating heat flow through a two-phase heat exchanger, Applied thermal engineering 25, No. 14-15, 2321-2329 (2005)
[1667] Yilmaz, M.: Performance evaluation criteria for heat exchangers based on first law analysis, Journal of enhanced heat transfer 12, No. 2, 121-157 (2005)
[1668] Porowski, M.: An analytical model of a matrix heat exchanger with longitudinal heat conduction in the matrix in application for the exchanger dynamics research, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 1, 12-29 (2005)
[1669] Islamoglu, Y.: Modeling of thermal performance of a cooling tower using an artificial neural network, Heat transfer engineering 26, No. 4, 73-76 (2005)
[1670] Islamoglu, Y.; Kurt, A.; Parmaksizoglu, C.: Performance prediction for non-adiabatic capillary tube suction line heat exchanger: an artificial neural network approach, Energy conversion and management 46, No. 2, 223-232 (2005)
[1671] Horvat, A.; Mavko, B.: Hierarchic modeling of heat transfer processes in heat exchangers, International journal of heat and mass transfer 48, No. 2, 361-371 (2005) · Zbl 1121.76330
[1672] Thonon, B.: Advanced and high-performance heat exchangers for the hydrocarbon- processing industries, Heat transfer engineering 26, No. 5, 73-84 (2005)
[1673] Swain, A. K.; Roy, G. K.: Prediction of shell side heat transfer coefficient for common liquids: use of nomograph, Chemical engineering world 40, No. 11, 63-64 (2005)
[1674] Shaw, G.; Tucker, G.: Design changes to shell flows in tubular heat exchangers to effect heat recovery, Food science and technology 19, No. 1, 32-34 (2005)
[1675] Kaiser, A. S.: Numerical model of evaporative cooling processes in a new type of cooling tower, International journal of heat and mass transfer 48, No. 5, 986-999 (2005) · Zbl 1189.76636
[1676] Ayub, Z. H.: A new chart method for evaluating single-phase shell side heat transfer coefficient in a single segmental shell and tube heat exchanger, Applied thermal engineering 25, No. 14-15, 2412-2420 (2005)
[1677] Yan, W. M.; Li, H. Y.; Tsay, Y. L.: Thermofluid characteristics of frosted finned-tube heat exchangers, International journal of heat and mass transfer 48, No. 15, 3073-3080 (2005)
[1678] Wongwises, S.; Chokeman, Y.: Effect of fin pitch and number of tube rows on the air side performance of herringbone wavy fin and tube heat exchangers, Energy conversion and management 46, No. 13-14, 2216-2231 (2005)
[1679] Tang, S.; Yang, K. T.: Thermal performance of a single-row fin-and-tube heat exchanger, Journal of thermal science 14, No. 2, 172-180 (2005)
[1680] Pesteei, S. M.; Subbarao, P. M. V.; Agarwal, R. S.: Experimental study of the effect of winglet location on heat transfer enhancement and pressure drop in fin-tube heat exchangers, Applied thermal engineering 25, No. 11-12, 1684-1696 (2005)
[1681] Pirompugd, W.; Wongwises, S.; Wang, C. C.: A tube-by-tube reduction method for simultaneous heat and mass transfer characteristics for plain fin-and-tube heat exchangers in dehumidifying conditions, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 756-765 (2005)
[1682] Kim, Y.: Heat transfer characteristics of flat plate finned-tube heat exchangers with large fin pitch, International journal of refrigeration 28, No. 6, 851-858 (2005)
[1683] Chokeman, Y.; Wongwises, S.: Effect of fin pattern on the air-side performance of herringbone wavy fin-and-tube heat exchangers, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 642-650 (2005)
[1684] Bougriou, C.; Bessaïh, R.: Determination of apparent heat transfer coefficient by condensation in an industrial finned-tube heat exchanger: prediction, Applied thermal engineering 25, No. 11-12, 1863-1870 (2005)
[1685] Bougriou, C.; Bessaïh, R.; Bontemps, A.: Experimental study of performances of industrial heat exchangers functioning in wet regime, International journal of heat exchangers 6, No. 2, 179-202 (2005)
[1686] Chen, H. T.; Song, J. P.; Wang, Y. T.: Prediction of heat transfer coefficient on the fin inside one-tube plate finned-tube heat exchangers, International journal of heat and mass transfer 48, No. 13, 2697-2707 (2005) · Zbl 1189.80012
[1687] Witry, A.; Al-Hajeri, M. H.; Bondok, A. A.: Thermal performance of automotive aluminium plate radiator, Applied thermal engineering 25, No. 8-9, 1207-1218 (2005)
[1688] Thonon, B.: Plate heat exchangers: a review of correlations for single-phase flow heat transfer and pressure drop, International journal of heat exchangers 6, No. 1, 1-34 (2005)
[1689] Srihari, N.: Transient response of plate heat exchangers considering effect of flow maldistribution, International journal of heat and mass transfer 48, No. 15, 3231-3243 (2005) · Zbl 1189.80028
[1690] Prabhakara, R. B.; Sunden, B.; Das, S. K.: An experimental and theoretical investigation of the effect of flow maldistribution on the thermal performance of plate heat exchangers, Journal of heat transfer 127, No. 3, 332-343 (2005)
[1691] Polley, G. T.; Abu-Khader, M. M.: Compensating for end effects in plate-and-frame heat exchangers, Heat transfer engineering 26, No. 10, 3-7 (2005)
[1692] Kuo, W. S.: Condensation heat transfer and pressure drop of refrigerant R-410A flow in a vertical plate heat exchanger, International journal of heat and mass transfer 48, No. 25-26, 5205-5220 (2005)
[1693] Claesson, J.: The influence of brine flow on the flow boiling refrigerant heat transfer coefficient in a compact brazed plate heat exchanger, International journal of heat exchangers 6, No. 1, 35-54 (2005)
[1694] Zhou, J.; Tao, W.: Three dimensional numerical simulation and analysis of the airside performance of slotted fin surfaces with radial strips, Engineering computations (Swansea, wales) 22, No. 8, 940-957 (2005) · Zbl 1191.80043
[1695] He, Y. L.: Three-dimensional numerical study of heat transfer characteristics of plain plate fin-and-tube heat exchangers from view point of field synergy principle, International journal of heat and fluid flow 26, No. 3, 459-473 (2005)
[1696] Hassani, V.; Dickens, J.; Bell, K. J.: The fin-on-plate heat exchanger: a new configuration for air-cooled power plants, Heat transfer engineering 26, No. 6, 7-15 (2005)
[1697] Franco, A.; Giannini, N.: Optimum thermal design of modular compact heat exchangers structure for heat recovery steam generators, Applied thermal engineering 25, No. 8-9, 1293-1313 (2005)
[1698] Erek, A.: Effect of geometrical parameters on heat transfer and pressure drop characteristics of plate fin and tube heat exchangers, Applied thermal engineering 25, No. 14-15, 2421-2431 (2005)
[1699] De Paepe, M.; Willems, A.; Zenner, A.: Experimental determination of the heat transfer coefficient of a plate-fin heat exchanger, Heat transfer engineering 26, No. 7, 29-35 (2005)
[1700] Alam, M. K.; Watts, R. J.: Heat transfer and friction factor in composite carbon-carbon plate-fin heat exchanger, International journal of heat exchangers 6, No. 2, 203-216 (2005)
[1701] Bulatov, I.: Retrofit optimization framework for compact heat exchangers, Heat transfer engineering 26, No. 5, 4-14 (2005)
[1702] Carluccio, E.: Numerical analysis of a cross-flow compact heat exchanger for vehicle applications, Applied thermal engineering 25, No. 13, 1995-2013 (2005)
[1703] Alagic, S.: Numerical analysis of heat transfer and fluid flow in rotary regenerative air pre-heaters, Strojniski vestnik/journal of mechanical engineering 51, No. 7-8, 411-417 (2005)
[1704] Skiepko, T.; Shah, R. K.: Modeling and effect of leakages on heat transfer performance of fixed matrix regenerators, International journal of heat and mass transfer 48, No. 8, 1608-1632 (2005)
[1705] Tago, M.: Heat extraction characteristics by coaxial heat exchanger, Heat transfer - asian research 34, No. 7, 496-513 (2005)
[1706] Simoes, P. C.; Fernandes, J.; Mota, J. P.: Dynamic model of a supercritical carbon dioxide heat exchanger, Journal of supercritical fluids 35, No. 2, 167-173 (2005)
[1707] Rennie, T. J.; Raghavan, V. G. S.: Experimental studies of a double-pipe helical heat exchanger, Experimental thermal and fluid science 29, No. 8, 919-924 (2005)
[1708] Rane, M. V.; Tandale, M. S.: Water-to-water heat transfer in tube-tube heat exchanger: experimental and analytical study, Applied thermal engineering 25, No. 17 – 18, 2715-2729 (2005)
[1709] Louw, W. I.; Meyer, J. P.: Heat transfer during annular tube contact in a helically coiled tube-in-tube heat exchanger, Heat transfer engineering 26, No. 6, 16-21 (2005)
[1710] Ho, C. D.; Yang, W. Y.: Heat transfer of conjugated graetz problems with laminar counterflow in double-pass concentric circular heat exchangers, International journal of heat and mass transfer 48, No. 21 – 22, 4474-4480 (2005) · Zbl 1189.76179
[1711] Batmaz, E.; Sandeep, K. P.: Calculation of overall heat transfer coefficients in a triple tube heat exchanger, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 3, 271-279 (2005)
[1712] Akpinar, E. K.; Bicer, Y.: Investigation of heat transfer and exergy loss in a concentric double pipe exchanger equipped with swirl generators, International journal of thermal sciences 44, No. 6, 598-607 (2005)
[1713] Zaheed, L.; Jachuck, R. J. J.: Effects of corrugation angle on heat transfer and pressure drop in a cross-corrugated polymer film compact heat exchanger (PFCHE), International journal of heat exchangers 6, No. 2, 305-330 (2005)
[1714] Zaheed, L.; Jachuck, R. J. J.: Effects of Prandtl number on heat transfer and pressure drop in a cross-corrugated polyment film compact heat exchanger (PFCHE), International journal of heat exchangers 6, No. 2, 331-359 (2005)
[1715] Zaheed, L.; Jachuck, R. J. J.: Performance of a square, cross-corrugated, polymer film, compact, heat-exchanger with potential application in fuel cells, Journal of power sources 140, No. 2, 304-310 (2005)
[1716] Li, Z.; Mantell, S. C.; Davidson, J. H.: Mechanical analysis of streamlined tubes with non-uniform wall thickness for heat exchangers, Journal of strain analysis for engineering design 40, No. 3, 275-285 (2005)
[1717] Cheng, L.; Van Der Geld, C. W. M.: Experimental study of heat transfer and pressure drop characteristics of air/water and air-steam/water heat exchange in a polymer compact heat exchanger, Heat transfer engineering 26, No. 2, 18-27 (2005)
[1718] Williams, G. J.: Chilled-water cooling coils, HPAC heating, piping, Airconditioning engineering 77, No. 11, 28-34 (2005)
[1719] Nuntaphan, A.; Kiatsiriroat, T.; Wang, C. C.: Heat transfer and friction characteristics of crimped spiral finned heat exchangers with dehumidification, Applied thermal engineering 25, No. 2-3, 327-340 (2005)
[1720] Naphon, P.; Wongwises, S.: A study of the heat transfer characteristics of a compact spiral coil heat exchanger under wet-surface conditions, Experimental thermal and fluid science 29, No. 4, 511-521 (2005)
[1721] Wilk, J.: Average temperature of the rotor of high-speed rotating heat exchanger during the period of thermal start-up, International journal of heat and mass transfer 48, No. 10, 2079-2089 (2005) · Zbl 1189.76723
[1722] Frain, M. J.; Schmidt, D. P.; Fiveland, W. A.: An experimental investigation of the influence of gas and solid particle interaction on the heat transfer effectiveness of a falling-bed heat exchanger, Journal of heat transfer 127, No. 10, 1077-1086 (2005)
[1723] Aghajani, M.; Müller-Steinhagen, H.; Jamialahmadi, M.: New design equations for liquid/solid fluidized bed heat exchangers, International journal of heat and mass transfer 48, No. 2, 317-329 (2005)
[1724] Meyer, J. P.; Van Der Vyver, H.: Heat transfer characteristics of a quadratic koch island fractal heat exchanger, Heat transfer engineering 26, No. 9, 22-29 (2005)
[1725] Lee, Y. C.: Analysis of cross-flow type of air-to-air total heat exchangers made of functional paper, HVAC and R research 11, No. 3, 395-410 (2005)
[1726] Gomez, E. V.: Description and experimental results of a semi-indirect ceramic evaporative cooler, International journal of refrigeration 28, No. 5, 654-662 (2005)
[1727] Alm, B.; Knitter, R.; Haußelt, J.: Development of a ceramic micro heat exchanger design, construction, and testing, Chemical engineering and technology 28, No. 12, 1554-1560 (2005)
[1728] Forster, H.: Fine ribs on both sides. Efficient solutions for gas/liquid heat transfer, Feinripp auf beiden seiten. Effiziente losungen fur die gas/flussigkeits-warmeubertragung 34, No. 9, 48 (2005)
[1729] Backhaus, S.; Swift, G. W.; Reid, R. S.: High-temperature self-circulating thermoacoustic heat exchanger, Applied physics letters 87, No. 1, 1-3 (2005)
[1730] Nika, P.; Bailly, Y.; Guermeur, F.: Thermoacoustics and related oscillatory heat and fluid flows in micro heat exchangers, International journal of heat and mass transfer 48, No. 18, 3773-3792 (2005) · Zbl 1189.76469
[1731] Paek, I.; Braun, J. E.; Mongeau, L.: Characterizing heat transfer coefficients for heat exchangers in standing wave thermoacoustic coolers, Journal of the acoustical society of America 118, No. 4, 2271-2280 (2005)
[1732] Zhong, Y.: Dynamic dip testing as a method to assess the condensate drainage behavior from the air-side surface of compact heat exchangers, Experimental thermal and fluid science 29, No. 8, 957-970 (2005)
[1733] Abdulla, S. H.: Liquid-metal/water direct contact heat exchange: flow visualization, flow stability, and heat transfer using real-time X-ray imaging, Nuclear science and engineering 150, No. 2, 182-220 (2005)
[1734] Rao, N. M.; Maiti, B.; Das, P. K.: Comparison of dynamic performance for direct and fluid coupled indirect heat exchange systems, International journal of heat and mass transfer 48, No. 15, 3244-3252 (2005) · Zbl 1189.76185
[1735] Wilkinson, R. J.; Rinaldi, K.: Finer points of specifying cooling towers, HPAC heating, piping, airconditioning engineering 77, No. 5, 53-56 (2005)
[1736] Rotar, M.: A numerical analysis of the local anomalies in a natural-draft cooling tower, Heat transfer engineering 26, No. 9, 61-72 (2005)
[1737] Kloppers, J. C.; Kroger, D. G.: Influence of temperature inversions on wet-cooling tower performance, Applied thermal engineering 25, No. 8 – 9, 1325-1336 (2005)
[1738] Kloppers, J. C.; Kroger, D. G.: The Lewis factor and its influence on the performance prediction of wet-cooling towers, International journal of thermal sciences 44, No. 9, 879-884 (2005)
[1739] Kloppers, J. C.; Kroger, D. G.: Refinement of the transfer characteristic correlation of wet-cooling tower fills, Heat transfer engineering 26, No. 4, 35-41 (2005)
[1740] Fisenko, S. P.; Petruchik, A. I.: Toward to the control system of mechanical draft cooling tower of film type, International journal of heat and mass transfer 48, No. 1, 31-35 (2005) · Zbl 1099.76508
[1741] Babcock, G. A.: Because temperature matters: maintaining cooling towers, ASHRAE journal 47, No. 3, 46-51 (2005)
[1742] Chichindaev, A. V.: Characteristics of the thermal stress state in the primary heat exchanger of the aircraft air conditioning system, Russian aeronautics 48, No. 2, 49-55 (2005)
[1743] Chichindayev, A. V.: Influence of air-evaporation cooling on the efficiency of air-to-liquid heat exchanger operation, Russian aeronautics 48, No. 3, 110-113 (2005)
[1744] Belosevic, S.: Experimental and numerical investigation of heat exchanger built in solid fuel household furnace of an original concept, Energy and buildings 37, No. 4, 325-331 (2005)
[1745] Fayolle, F.; Mabit, J.; Legrand, J.: Determination of heterogeneities in a scraped surface heat exchanger using electrochemical sensors, Journal of applied electrochemistry 35, No. 5, 487-498 (2005)
[1746] Knudsen, S.: Analysis of the flow structure and heat transfer in a vertical mantle heat exchanger, Solar energy 78, No. 2, 281-289 (2005)
[1747] Sommers, A. D.; Jacobi, A. M.: Air-side heat transfer enhancement of a refrigerator evaporator using vortex generation, International journal of refrigeration 28, No. 7, 1006-1017 (2005)
[1748] Stephan, R. A.; Thole, K. A.: Optimization study relevant to louvered fin compact heat exchangers, International journal of heat exchangers 6, No. 1, 73-92 (2005)
[1749] Joardar, A.; Jacobi, A. M.: Impact of leading edge delta-wing vortex generators on the thermal performance of a flat tube, louvered-fin compact heat exchanger, International journal of heat and mass transfer 48, No. 8, 1480-1493 (2005)
[1750] Gruss, J. A.; Bouzon, C.; Thonon, B.: Extruded microchannel-structured heat exchangers, Heat transfer engineering 26, No. 3, 56-63 (2005)
[1751] Hegde, P.: Thermal analysis of micro-channel heat exchangers with two-phase flow using FEM, International journal of numerical methods for heat and fluid flow 15, No. 1, 43-60 (2005) · Zbl 1162.76398
[1752] Astrain, D.; Vián, J. G.: Study and optimization of the heat dissipater of a thermoelectric refrigerator, Journal of enhanced heat transfer 12, No. 2, 159-170 (2005)
[1753] Simons, R. E.; Ellsworth, M. J.; Chu, R. C.: An assessment of module cooling enhancement with thermoelectric coolers, Journal of heat transfer 127, No. 1, 76-84 (2005)
[1754] Sahiti, N.; Durst, F.; Dewan, A.: Heat transfer enhancement by pin elements, International journal of heat and mass transfer 48, No. 23 – 24, 4738-4747 (2005) · Zbl 1189.76188
[1755] O’brien, J. E.; Sohal, M. S.: Heat transfer enchancement for finned-tube heat exchangers with winglets, Journal of heat transfer 127, No. 2, 171-178 (2005)
[1756] Lin, C. W.; Jang, J. Y.: 3D numerical heat transfer and fluid flow analysis in plate-fin and tube heat exchangers with electrohydrodynamic enhancement, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 583-593 (2005)
[1757] Buffone, C.: Heat transfer enhancement in heat pipe applications using surface coating, Journal of enhanced heat transfer 12, No. 1, 21-35 (2005)
[1758] Yang, Y.: Heat transfer properties of nanoparticle-in-fluid dispersions (nanofluids) in laminar flow, International journal of heat and mass transfer 48, No. 6, 1107-1116 (2005)
[1759] Xuan, Y.; Yu, K.; Li, Q.: Investigation on flow and heat transfer of nanofluids by the thermal lattice Boltzmann model, Progress in computational fluid dynamics 5, No. 1 – 2, 13-19 (2005)
[1760] Chang, T. B.; Chiou, J. S.: Heat transfer enhancement in a spray evaporator, Journal of enhanced heat transfer 12, No. 1, 85-100 (2005)
[1761] Kukulka, D. J.: An evaluation of heat transfer surface materials used in fouling applications, Heat transfer engineering 26, No. 5, 42-48 (2005)
[1762] Malayeri, M. R.; Müller-Steinhagen, H.; Bartlett, T. H.: Fouling of tube bundles under pool boiling conditions, Chemical engineering science 60, No. 6, 1503-1513 (2005)
[1763] Habib, M. A.: Erosion in the tube entrance region of a shell and tube heat exchanger, International journal of numerical methods for heat and fluid flow 15, No. 2, 143-160 (2005)
[1764] Nema, P. K.; Datta, A. K.: A computer based solution to check the drop in milk outlet temperature due to fouling in a tubular heat exchanger, Journal of food engineering 71, No. 2, 133-142 (2005)
[1765] Sahoo, P. K.; Ansari, I. A.; Datta, A. K.: Milk fouling simulation in helical triple tube heat exchanger, Journal of food engineering 69, No. 2, 235-244 (2005)
[1766] Riverol, C.; Napolitano, V.: Estimation of fouling in a plate heat exchanger through the application on neural networks, Journal of chemical technology and biotechnology 80, No. 5, 594-600 (2005)
[1767] Yeap, B. L.: Retrofitting crude oil refinery heat exchanger networks to minimize fouling while maximizing heat recovery, Heat transfer engineering 26, No. 1, 23-34 (2005)
[1768] Bouris, D.: Design of a novel, intensified heat exchanger for reduced fouling rates, International journal of heat and mass transfer 48, No. 18, 3817-3832 (2005)
[1769] Al-Bagawi, J. J.; Said, S. A. M.; Zubair, S. M.: Assessment of current methods in determining fouling growth in heat exchangers, International journal of heat exchangers 6, No. 2, 153-164 (2005)
[1770] Al-Bagawi, J. J.; Said, S. A. M.; Zubair, S. M.: Shear enhancing fouling reduction in heat exchangers, International journal of heat exchangers 6, No. 2, 165-178 (2005)
[1771] Zhao, Q.: Effect of surface free energy on the adhesion of biofouling and crystalline fouling, Chemical engineering science 60, No. 17, 4858-4865 (2005)
[1772] Pugh, S. J.; Hewitt, G. F.; Müller-Steinhagen, H.: Fouling during the use of seawater as coolant - the development of a user guide, Heat transfer engineering 26, No. 1, 35-43 (2005)
[1773] Murthy, P. Sriyutha: Evaluation of sodium hypochlorite for fouling control in plate heat exchangers for seawater application, International biodeterioration and biodegradation 55, No. 3, 161-170 (2005)
[1774] Qureshi, B. A.; Zubair, S. M.: The impact of fouling on performance evaluation of evaporative coolers and condensers, International journal of energy research 29, No. 14, 1313-1330 (2005)
[1775] Williams, R. R.; Harris, D. K.: The heat transfer limit of step-graded metal felt heat pipe wicks, International journal of heat and mass transfer 48, No. 2, 293-305 (2005)
[1776] Tsai, Y. S.: Enhancement of thermal performance in a sintered miniature heat pipe, Journal of the chinese institute of engineers, transactions of the chinese institute of engineers, series A/chung-kuo Kung ch’eng hsuch k’an 28, No. 2, 359-363 (2005)
[1777] Abe, Y.; Iwaski, A.; Tanaka, K.: Thermal management with self-rewetting fluids, Microgravity science and technology 15, No. 1, 148-152 (2005)
[1778] Thomas, S. K.; Damle, V. C.: Fluid flow in axial reentrant grooves with application to heat pipes, Journal of thermophysics and heat transfer 19, No. 3, 395-405 (2005)
[1779] Jeyadevan, B.; Koganezawa, H.; Nakatsuka, K.: Performance evaluation of citric ion-stabilized magnetic fluid heat pipe, Journal of magnetism and magnetic materials 289, 253-256 (2005)
[1780] Zhang, H.: Investigation of startup behaviors of a loop heat pipe, Journal of thermophysics and heat transfer 19, No. 4, 509-518 (2005)
[1781] Kim, B. H.; Peterson, G. P.: Experimental study of a reversible loop heat pipe, Journal of thermophysics and heat transfer 19, No. 4, 519-526 (2005)
[1782] Maydanik, Y. F.: Loop heat pipes, Applied thermal engineering 25, No. 5-6, 635-657 (2005)
[1783] Maydanik, Y. F.: Miniature loop heat pipes - a promising means for cooling electronics, IEEE transactions on components and packaging technologies 28, No. 2, 290-296 (2005)
[1784] Reis, A. H.; Miguel, A. F.; Aydin, M.: Analysis of loop heat pipe performance under varying Wick load, Strojniski vestnik/journal of mechanical engineering 51, No. 7 – 8, 451-455 (2005)
[1785] Parker, M. L.; Drolen, B. L.; Ayyaswamy, P. S.: Loop heat pipe for spacecraft thermal control, part 2: ambient condition tests, Journal of thermophysics and heat transfer 19, No. 2, 129-136 (2005)
[1786] Vasiliev, L. L.: Heat pipes in modern heat exchangers, Applied thermal engineering 25, No. 1, 1-19 (2005)
[1787] Dobson, R. T.: An open oscillatory heat pipe water pump, Applied thermal engineering 25, No. 4, 603-621 (2005)
[1788] Gu, J.; Kawaji, M.; Futamata, R.: Microgravity performance of micro pulsating heat pipes, Microgravity science and technology 15, No. 1, 181-185 (2005)
[1789] Katpradit, T.: Correlation to predict heat transfer characteristics of a closed end oscillating heat pipe at critical state, Applied thermal engineering 25, No. 14 – 15, 2138-2151 (2005)
[1790] Xu, J. L.; Zhang, X. M.: Start-up and steady thermal oscillation of a pulsating heat pipe, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 685-694 (2005)
[1791] Xu, J. L.; Li, Y. X.; Wong, T. N.: High speed flow visualization of a closed loop pulsating heat pipe, International journal of heat and mass transfer 48, No. 16, 3338-3351 (2005)
[1792] Vasiliev, L.; Jr., L. Vasiliev: Sorption heat pipe-a new thermal control device for space and ground application, International journal of heat and mass transfer 48, No. 12, 2464-2472 (2005)
[1793] Nouri-Borujerdi, A.; Layeghi, M.: A review of concentric annular heat pipes, Heat transfer engineering 26, No. 6, 45-58 (2005)
[1794] Hsu, C. C.; Kang, S. W.; Hou, T. F.: Performance testing of micro loop heat pipes, Tamkang journal of science and engineering 8, No. 2, 123-132 (2005)
[1795] Wang, Y.; Peterson, G. P.: Investigation of a novel flat heat pipe, Journal of heat transfer 127, No. 2, 165-170 (2005)
[1796] Z.T. Yu, Y.C. Hu, K.F. Cen, Optimal design of the separate type heat pipe heat exchanger, Journal of Zhejiang University: Science 6 A(SUPPL.) (2005) 23-28. · Zbl 1082.76516
[1797] Tan, B. K.; Wong, T. N.; Ooi, K. T.: Analytical effective length study of a flat plate heat pipe using point source approach, Applied thermal engineering 25, No. 14-15, 2272-2284 (2005)
[1798] Couto, P.; Ochterbeck, J. M.; Mantelli, M. B. H.: Analysis of supercritical startup of cryogenic heat pipes with parasitic heat loads, Journal of thermophysics and heat transfer 19, No. 4, 497-508 (2005)
[1799] Suman, B.; Hoda, N.: Effect of variations in thermophysical properties and design parameters on the performance of a V-shaped micro grooved heat pipe, International journal of heat and mass transfer 48, No. 10, 2090-2101 (2005) · Zbl 1189.76659
[1800] Suman, B.; De, S.; Dasgupta, S.: A model of the capillary limit of a micro heat pipe and prediction of the dry-out length, International journal of heat and fluid flow 26, No. 3, 495-505 (2005)
[1801] Suman, B.; De, S.; Dasgupta, S.: Transient modeling of micro-grooved heat pipe, International journal of heat and mass transfer 48, No. 8, 1633-1646 (2005) · Zbl 1189.76658
[1802] Suman, B.; Kumar, P.: An analytical model for fluid flow and heat transfer in a micro-heat pipe of polygonal shape, International journal of heat and mass transfer 48, No. 21 – 22, 4498-4509 (2005) · Zbl 1189.76660
[1803] Riffat, S. B.; Zhao, X.; Doherty, P. S.: Numerical and experimental investigation of the operating characteristics of a ”wickless” heat pipe, International journal of ambient energy 26, No. 2, 93-105 (2005)
[1804] Lin, S.; Broadbent, J.; Mcglen, R.: Numerical study of heat pipe application in heat recovery systems, Applied thermal engineering 25, No. 1, 127-133 (2005)
[1805] Ghajar, M.; Darabi, J.; Jr., N. Crews: A hybrid CFD-mathematical model for simulation of a MEMS loop heat pipe for electronics cooling applications, Journal of micromechanics and microengineering 15, No. 2, 313-321 (2005)
[1806] Khodabandeh, R.: Heat transfer in the evaporator of an advanced two-phase thermosyphon loop, International journal of refrigeration 28, No. 2, 190-202 (2005)
[1807] Noie, S. H.: Heat transfer characteristics of a two-phase closed thermosyphon, Applied thermal engineering 25, No. 4, 495-506 (2005)
[1808] Shamsuzzoha, M.; Lee, M.; Alam, S. S.: The determination of superheated layer thickness and wall superheat in vertical tube natural circulation reboiler, Applied thermal engineering 25, No. 13, 1961-1978 (2005)
[1809] Rao, N. M.; Maiti, B.; Das, P. K.: Dynamic performance of a natural circulation loop with end heat exchangers under different excitations, International journal of heat and mass transfer 48, No. 15, 3185-3196 (2005) · Zbl 1189.76275
[1810] Rao, N. M.; Maiti, B.; Das, P. K.: Stability behavior of a natural circulation loop with end heat exchangers, Journal of heat transfer 127, No. 7, 749-759 (2005) · Zbl 1189.76275
[1811] Rao, N. M.; Maiti, B.; Das, P. K.: Pressure variation in a natural circulation loop with end heat exchangers, International journal of heat and mass transfer 48, No. 7, 1403-1412 (2005) · Zbl 1189.76130
[1812] Al-Salaymeh, A.; Rabah, M.; Alhusein, M.: Experimental investigations of the influence of the working fluids on the performance of a closed, two- phase horizontal thermosyphon, International journal of heat and technology 23, No. 2, 131-138 (2005)
[1813] Fujii, T.: The dynamic characteristics of a thermal control system using latent heat: comparison between analytical and experimental results, Heat transfer - asian research 34, No. 8, 564-578 (2005)
[1814] Islam, M. A.; Monde, M.; Mitsutake, Y.: CHF characteristics and correlations of concentric-tube open thermosyphon working with R22, International journal of heat and mass transfer 48, No. 21 – 22, 4615-4622 (2005)
[1815] Aquaro, D.; Zaccari, N.: Thermal analysis of a core catcher made of a pebble bed located inside the reactor pressure vessel, International journal of heat and technology 23, No. 1, 21-29 (2005)
[1816] Cheung, F. B.: Limiting factors for external reactor vessel cooling, Nuclear technology 152, No. 2, 145-161 (2005)
[1817] Jeong, Y. H.; Chang, S. H.; Baek, W. P.: Critical heat flux experiments on the reactor vessel wall using 2-D slice test section, Nuclear technology 152, No. 2, 162-169 (2005)
[1818] Fedoseev, V. E.; Tsykanov, V. A.; Starkov, V. A.: Upgrading the design of cruciform fuel elements to increase their heat-engineering characteristics, Atomic energy 98, No. 4, 262-269 (2005)
[1819] Holloway, M. V.: The effect of support grid design on azimuthal variation in heat transfer coefficient for rod bundles, Journal of heat transfer 127, No. 6, 598-605 (2005)
[1820] Jayanti, S.; Valette, M.: Calculation of dry out and post-dry out heat transfer in rod bundles using a three field model, International journal of heat and mass transfer 48, No. 9, 1825-1839 (2005)
[1821] Kim, K. Y.; Seo, J. W.: Numerical optimization for the design of a spacer grid with mixing vanes in a pressurized water reactor fuel assembly, Nuclear technology 149, No. 1, 62-70 (2005)
[1822] Zhukov, A. V.; Kuzina, Y. A.; Sorokin, A. P.: Analysis of a benchmark experiment on the hydraulics and heat transfer in a liquid-metal-cooled assembly of fuel-element simulators, Atomic energy 99, No. 5, 770-781 (2005)
[1823] Nishi, Y.: Computational analysis of the thermal-hydraulic characteristics of the encapsulated nuclear heat source, Nuclear technology 152, No. 3, 324-338 (2005)
[1824] Pain, C. C.: A model of heat transfer dynamics of coupled multiphase-flow and neutron-radiation: application to a nuclear fluidized bed reactor, International journal of numerical methods for heat and fluid flow 15, No. 8, 765-807 (2005)
[1825] Suresh, C. S. Y.: Heat transfer from a totally blocked fuel subassembly of a liquid metal fast breeder reactor: part I. Experimental investigation, Nuclear engineering and design 235, No. 8, 885-895 (2005)
[1826] Suresh, C. S. Y.: Heat transfer from a totally blocked fuel subassembly of a liquid metal fast breeder reactor: II. Numerical simulation, Nuclear engineering and design 235, No. 8, 897-912 (2005)
[1827] Yun, G.: Two-phase instability analysis in natural circulation loops of China advanced research reactor, Annals of nuclear energy 32, No. 4, 379-397 (2005)
[1828] Yun, J. I.; Suh, K. Y.; Kang, C. S.: Heat and fission product transport in molten core material pool with crust, Nuclear engineering and design 235, No. 20, 2171-2181 (2005)
[1829] Davies, M.: The development of an accurate tool to determine convective heat transfer coefficients in real buildings, Energy and buildings 37, No. 2, 141-145 (2005)
[1830] Datcu, S.: Improvement of building wall surface temperature measurements by infrared thermography, Infrared physics and technology 46, No. 6, 451-467 (2005)
[1831] Kondrashov, V. I.; Moiseenko, A. M.: Thermoanalysis of juicy agricultural raw material storehouses with multilayer building envelopes, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 4, 347-352 (2005)
[1832] Yik, F. W. H.; Wan, K. S. Y.: An evaluation of the appropriateness of using overall thermal transfer value (OTTV) to regulate envelope energy performance of air-conditioned buildings, Energy 30, No. 1, 41-71 (2005)
[1833] Cheng, V.; Ng, E.; Givoni, B.: Effect of envelope colour and thermal mass on indoor temperatures in hot humid climate, Solar energy 78, No. 4 SPEC. ISS., 528-534 (2005)
[1834] Reim, M.: Silica aerogel granulate material for thermal insulation and daylighting, Solar energy 79, No. 2, 131-139 (2005)
[1835] Mazzei, P.; Minichiello, F.; Palma, D.: HVAC dehumidification systems for thermal comfort: a critical review, Applied thermal engineering 25, No. 5 – 6, 677-707 (2005)
[1836] Hamada, Y.; Fukai, J.: Latent heat thermal energy storage tanks for space heating of buildings: comparison between calculations and experiments, Energy conversion and management 46, No. 20, 3221-3235 (2005)
[1837] Hu, S. S.; Huang, B. J.: Study of a high efficiency residential split water-cooled air conditioner, Applied thermal engineering 25, No. 11 – 12, 1599-1613 (2005)
[1838] Misirlioglu, A.; Gulcat, U.: Low-energy cooling of rooms with chilled ceilings and ceiling-mounted devices, International journal of energy research 29, No. 8, 767-779 (2005)
[1839] Bari, E.: Air-cooled condensing systems for home and industrial appliances, Applied thermal engineering 25, No. 10, 1446-1458 (2005)
[1840] Nahor, H. B.: CFD model of the airflow, heat and mass transfer in cool stores, International journal of refrigeration 28, No. 3, 368-380 (2005)
[1841] Can, A.; Buyruk, E.; Kucuk, M.: Thermally activated building elements for cooling, International journal of environmental technology and management 5, No. 1, 42-59 (2005)
[1842] Larbi, A. B.: Statistical modelling of heat transfer for thermal bridges of buildings, Energy and buildings 37, No. 9, 945-951 (2005)
[1843] Li, X.: Numerical analysis of outdoor thermal environment around buildings, Building and environment 40, No. 6, 853-866 (2005)
[1844] Moussiopoulos, N.; Ossanli, I.; Barmpas, P.: A study of heat transfer effects on air pollution dispersion in street canyons by numerical simulations, International journal of environment and pollution 25, No. 1 – 4, 131-144 (2005)
[1845] Zukowski, M.: Heat transfer and pressure drop characteristics of the underfloor air distribution system, Energy and buildings 37, No. 8, 890-896 (2005)
[1846] Desta, T. Z.: Modelling and control of heat transfer phenomena inside a ventilated air space, Energy and buildings 37, No. 7, 777-786 (2005)
[1847] Chen, L.: Ecological optimization for generalized irreversible Carnot refrigerators, Journal of physics D: Applied physics 38, No. 1, 113-118 (2005)
[1848] Ataer, O. E.; Karabulut, H.: Thermodynamic analysis of the V-type Stirling-cycle refrigerator, International journal of refrigeration 28, No. 2, 183-189 (2005)
[1849] Bhardwaj, P. K.; Kaushik, S. C.; Jain, S.: General performance characteristics of an irreversible vapour absorption refrigeration system using finite time thermodynamic approach, International journal of thermal sciences 44, No. 2, 189-196 (2005)
[1850] Chen, C. K.; Su, Y. F.: Exergetic efficiency optimization for an irreversible brayton refrigeration cycle, International journal of thermal sciences 44, No. 3, 303-310 (2005)
[1851] Kim, S. G.: The performance of a transcritical CO2 cycle with an internal heat exchanger for hot water heating, International journal of refrigeration 28, No. 7, 1064-1072 (2005)
[1852] Chen, C. K.; Su, Y. F.: Application of exergy method to an irreversible inter-cooled refrigeration cycle, Proceedings of the institution of mechanical engineers, part A: journal of power and energy 219, No. 8, 661-668 (2005)
[1853] Wang, X.; Chua, H. T.; Ng, K. C.: Experimental investigation of silica gel-water adsorption chillers with and without a passive heat recovery scheme, International journal of refrigeration 28, No. 5, 756-765 (2005)
[1854] Qin, X.: Performance of an endoreversible four-heat-reservoir absorption heat-transformer with a generalised heat transfer law, International journal of ambient energy 26, No. 4, 171-179 (2005)
[1855] Qin, X.: Thermo-economic optimization of an endoreversible four-heat-reservoir absorption-refrigerator, Applied energy 81, No. 4, 420-433 (2005)
[1856] Wang, W.; Wang, R.: Investigation of non-equilibrium adsorption character in solid adsorption refrigeration cycle, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 680-684 (2005)
[1857] Wang, S. G.; Wang, R. Z.; Li, X. R.: Research and development of consolidated adsorbent for adsorption systems, Renewable energy 30, No. 9, 1425-1441 (2005)
[1858] Ziegler, F.; Satzger, P.: Increase of the efficiency of the heat transfer phase in solid sorption or reaction systems, International journal of thermal sciences 44, No. 12, 1115-1122 (2005)
[1859] Chen, L.: Performance limits of real absorption refrigerators, Journal of the energy institute 78, No. 3, 139-144 (2005)
[1860] Critoph, R. E.: Modular regenerative adsorption cycles with fixed beds, applied to trigeneration, Proceedings of the institution of mechanical engineers, part E: journal of process mechanical engineering 219, No. 2, 197-204 (2005)
[1861] Hamamoto, Y.: Performance evaluation of a two-stage adsorption refrigeration cycle with different mass ratio, International journal of refrigeration 28, No. 3, 344-352 (2005)
[1862] Restuccia, G.: Experimental investigation of a solid adsorption chiller based on a heat exchanger coated with hydrophobic zeolite, Applied thermal engineering 25, No. 10, 1419-1428 (2005)
[1863] Yong, L.; Sumathy, K.: Performance analysis of a continuous multi-bed adsorption rotary cooling system, Applied thermal engineering 25, No. 2 – 3, 393-407 (2005)
[1864] Stitou, D.; Spinner, B.; Sorin, M.: An approach for structural design of cooling sorption processes, International journal of heat and technology 23, No. 1, 137-145 (2005)
[1865] Liu, Y. L.; Wang, R. Z.; Xia, Z. Z.: Experimental study on a continuous adsorption water chiller with novel design, International journal of refrigeration 28, No. 2, 218-230 (2005)
[1866] Liu, Y. L.; Wang, R. Z.; Xia, Z. Z.: Experimental performance of a silica gel-water adsorption chiller, Applied thermal engineering 25, No. 2-3, 359-375 (2005)
[1867] Akahira, A.: Experimental investigation of mass recovery adsorption refrigeration cycle, International journal of refrigeration 28, No. 4, 565-572 (2005)
[1868] Chang, K. S.; Chen, M. T.; Chung, T. W.: Effects of the thickness and particle size of silica gel on the heat and mass transfer performance of a silica gel-coated bed for air-conditioning adsorption systems, Applied thermal engineering 25, No. 14 – 15, 2330-2340 (2005)
[1869] Chen, L.: Effect of heat transfer on the performance of two-stage semiconductor thermoelectric refrigerators, Journal of applied physics 98, No. 3, 1-7 (2005)
[1870] Cao, Y. L.; Xia, W. Q.; Yu, L.: Optimal performance of thermoelectric refrigeration system using entropy generation minimization method, Transactions of Nanjing university of aeronautics and astronautics 22, No. 4, 339-343 (2005) · Zbl 1179.80012
[1871] Chen, H. J.; Wang, D. W. P.; Chen, S. L.: Optimization of an ice-storage air conditioning system using dynamic programming method, Applied thermal engineering 25, No. 2 – 3, 461-472 (2005)
[1872] Chen, M. C.; Takeshita, K.; Ishida, M.: Computational study on binary distillation of heat-driven distillation system, Industrial and engineering chemistry research 44, No. 24, 9156-9163 (2005)
[1873] Miller, F. K.; Brisson, J. G.: Proof-of-principle measurements of the superfluid joule-thomson refrigerator concept, Journal of low temperature physics 141, No. 3 – 4, 179-190 (2005)
[1874] Marx, D.; Blanc-Benon, P.: Computation of the temperature distortion in the stack of a standing-wave thermoacoustic refrigerator, Journal of the acoustical society of America 118, No. 5, 2993-2999 (2005)
[1875] Maeda, K.; Inaba, H.: Study of an efficient dehumidifying system utilizing phase change of intermediate pressure refrigerant, HVAC and R research 11, No. 3, 411-432 (2005)
[1876] Kulkarni, M.; Raichintala, S.: Heat exchanger switchover in a refrigeration system: thermodynamic modeling of a reversing valve, International journal of heat exchangers 6, No. 1, 125-134 (2005)
[1877] Parise, J. A. R.; Marques, R. P.: The role of heat transfer in refrigeration, Heat transfer engineering 26, No. 9, 1-4 (2005)
[1878] Jeong, S.; Jang, K.; Ko, J.: A novel concept of rapid cooling method of refrigeration system, International journal of refrigeration 28, No. 2, 176-182 (2005)
[1879] Shir, F.: Analysis of room temperature magnetic regenerative refrigeration, International journal of refrigeration 28, No. 4, 616-627 (2005)
[1880] Ge, Y.: Effects of heat transfer and variable specific heats of working fluid on performance of a Miller cycle, International journal of ambient energy 26, No. 4, 203-214 (2005)
[1881] Wang, P. Y.; Hou, S. S.: Performance analysis and comparison of an atkinson cycle coupled to variable temperature heat reservoirs under maximum power and maximum power density conditions, Energy conversion and management 46, No. 15 – 16, 2637-2655 (2005)
[1882] Chen, L.: Performance comparison of an irreversible closed variable-temperature heat reservoir brayton cycle under maximum power density and maximum power conditions, Proceedings of the institution of mechanical engineers, part A: journal of power and energy 219, No. 7, 559-565 (2005)
[1883] Barrett, M. J.: Expectations of closed-brayton-cycle heat exchangers in nuclear space power systems, Journal of propulsion and power 21, No. 1, 152-157 (2005)
[1884] Zhou, J.: Optimal power output and entropy generation rate for an endoreversible Carnot cycle using a linear phenomenological heat transfer law, International journal of ambient energy 26, No. 3, 129-134 (2005)
[1885] Zhou, S.: Optimal performance of a generalized irreversible Carnot-engine, Applied energy 81, No. 4, 376-387 (2005)
[1886] Ge, Y.: Thermodynamic simulation of performance of an otto cycle with heat transfer and variable specific heats of working fluid, International journal of thermal sciences 44, No. 5, 506-511 (2005)
[1887] Ust, Y.; Safa, A.; Sahin, B.: Ecological performance analysis of an endoreversible regenerative brayton heat-engine, Applied energy 80, No. 3, 247-260 (2005)
[1888] Tyagi, S. K.; Kaushik, S. C.: Ecological optimisation of an irreversible regenerative intercooled brayton heat engine with direct heat loss, International journal of ambient energy 26, No. 2, 81-92 (2005)
[1889] Qin, X.: Frequency-dependent performance of an endoreversible Carnot engine with a linear phenomenological heat-transfer law, Applied energy 81, No. 4, 365-375 (2005)
[1890] Cegonho, N.; Domingos, T.: New and old regimes for the endoreversible heat engine, Journal of non-equilibrium thermodynamics 30, No. 2, 113-127 (2005) · Zbl 1114.80001
[1891] Khaliq, A.; Kumar, R.: Finite-time heat-transfer analysis and ecological optimization of an endoreversible and regenerative gas-turbine power-cycle, Applied energy 81, No. 1, 73-84 (2005)
[1892] Maheshwari, G.; Khandwawala, A. I.; Kaushik, S. C.: Maximum power density analyses for an irreversible radiative heat engine, International journal of ambient energy 26, No. 2, 71-80 (2005)
[1893] Hsieh, Y. C.; Chiou, J. S.: Optimal allocation of heat transfer area for a heat engine, Journal of mechanics 21, No. 1, 1-4 (2005)
[1894] Ai, B. Q.: Heat flow and efficiency in a microscopic engine, European physical journal B 48, No. 1, 101-106 (2005)
[1895] Sun, D.: Investigation on traveling wave thermoacoustic heat engine with high pressure amplitude, Energy conversion and management 46, No. 2, 281-291 (2005)
[1896] Armas, O.: Effect of the trapped mass and its composition on the heat transfer in the compression cycle of a reciprocating engine, Applied thermal engineering 25, No. 17 – 18, 2842-2853 (2005)
[1897] Chang, J.: Characterizing the thermal sensitivity of a gasoline homogeneous charge compression ignition engine with measurements of instantaneous wall temperature and heat flux, International journal of engine research 6, No. 4, 289-309 (2005)
[1898] Shojaefard, M. H.: Transient thermal analysis of engine exhaust valve, Numerical heat transfer; part A: applications 48, No. 7, 627-644 (2005)
[1899] Loubar, K.; Bellettre, J.; Tazerout, M.: Unsteady heat transfer enhancement around an engine cylinder in order to detect knock, Journal of heat transfer 127, No. 3, 278-286 (2005)
[1900] Zhang, R. R.: Analysis on the heating performance of a gas engine driven air to water heat pump based on a steady-state model, Energy conversion and management 46, No. 11 – 12, 1714-1730 (2005)
[1901] Kim, B. H.; O’neal, D. L.: Effect of refrigerant flow control on the heating performance of a variable-speed heat pump operating at low outdoor temperature, Journal of solar energy engineering, transactions of the ASME 127, No. 2, 277-286 (2005)
[1902] Qin, X.: Compromise optimisation between heating load and entropy production rate for endoreversible absorption heat pumps, International journal of ambient energy 26, No. 2, 106-112 (2005)
[1903] Chen, L.: Irreversible absorption heat-pump and its optimal performance, Applied energy 81, No. 1, 55-71 (2005)
[1904] Sarkar, J.; Bhattacharyya, S.; Gopal, M. Ram: Transcritical CO2 heat pump systems: exergy analysis including heat transfer and fluid flow effects, Energy conversion and management 46, No. 13 – 14, 2053-2067 (2005)
[1905] Wu, S.; Lin, G.; Chen, J.: Optimum thermoeconomic and thermodynamic performance characteristics of an irreversible three-heat-source heat pump, Renewable energy 30, No. 15, 2257-2271 (2005)
[1906] Zhu, X.: The ecological optimization of a generalized irreversible Carnot heat pump for a generalized heat transfer law, Journal of the energy institute 78, No. 1, 5-10 (2005)
[1907] Grigor’eva, N. I.: Methods for determining the Marangoni numbers in studying the absorption in the operation of a heat pump, Theoretical foundations of chemical engineering 39, No. 6, 561-565 (2005)
[1908] Alawadhi, E. M.: Forced convection cooling enhancement for rectangular blocks using a wavy plate, IEEE transactions on components and packaging technologies 28, No. 3, 525-533 (2005)
[1909] Kulkarni, D. P.; Das, D. K.: Analytical and numerical studies on microscale heat sinks for electronic applications, Applied thermal engineering 25, No. 14 – 15, 2432-2449 (2005)
[1910] Wu, M. C.: Thermal performance investigation for confined heat sinks by using a modified transient liquid crystal technique, Journal of electronic packaging, transactions of the ASME 127, No. 4, 474-482 (2005)
[1911] Mahalingam, R.; Glezer, A.: Design and thermal characteristics of a synthetic jet ejector heat sink, Journal of electronic packaging, transactions of the ASME 127, No. 2, 172-177 (2005)
[1912] Zhang, H. Y.: Fluid flow and heat transfer in liquid cooled foam heat sinks for electronic packages, IEEE transactions on components and packaging technologies 28, No. 2, 272-280 (2005)
[1913] Kang, M. K.: Analysis of laminar convective heat transfer in micro heat exchanger for stacked multi-chip module, Microsystem technologies 11, No. 11, 1176-1186 (2005)
[1914] Bower, C.: Heat transfer in water-cooled silicon carbide milli-channel heat sinks for high power electronic applications, Journal of heat transfer 127, No. 1, 59-65 (2005)
[1915] Fabbri, M.; Dhir, V. K.: Optimized heat transfer for high power electronic cooling using arrays of microjets, Journal of heat transfer 127, No. 7, 760-769 (2005)
[1916] Fabbri, M.; Jiang, S.; Dhir, V. K.: A comparative study of cooling of high power density electronics using sprays and microjets, Journal of heat transfer 127, No. 1, 38-48 (2005)
[1917] Zhang, H. Y.: Development of liquid cooling techniques for flip chip ball grid array packages with high heat flux dissipations, IEEE transactions on components and packaging technologies 28, No. 1, 127-135 (2005)
[1918] Ho, C. I.; Hung, T. C.; Hung, C. I.: Thermal analysis and optimization for a ball grid array package, Proceedings of the institution of mechanical engineers, part C: Journal of mechanical engineering science 219, No. 4, 381-393 (2005)
[1919] Kandasamy, R.; Subramanyam, S.: Application of computational fluid dynamics simulation tools for thermal characterization of electronic packages, International journal of numerical methods for heat and fluid flow 15, No. 1, 61-72 (2005) · Zbl 1162.76363
[1920] Rao, C. G.; Krishna, A. V.; Srinivas, P. N.: Simulation studies on multimode heat transfer from a square-shaped electronic device with multiple discrete heat sources, Numerical heat transfer; part A: applications 48, No. 5, 427-446 (2005)
[1921] Dhinsa, K.; Bailey, C.; Pericleous, K.: Investigation into the performance of turbulence models for fluid flow and heat transfer phenomena in electronic applications, IEEE transactions on components and packaging technologies 28, No. 4, 686-699 (2005)
[1922] Chungpaiboonpatana, S.; Shi, F. G.: Process and design analysis for ultrafine-pitched wiresweep elimination in advanced copper heat spreader BGA package, IEEE transactions on advanced packaging 28, No. 2, 278-287 (2005)
[1923] Gopinath, D.; Joshi, Y.; Azarm, S.: An integrated methodology for multiobjective optimal component placement and heat sink sizing, IEEE transactions on components and packaging technologies 28, No. 4, 869-876 (2005)
[1924] Ghajar, M.; Darabi, J.; Jr., N. Crews: A hybrid CFD-mathematical model for simulation of a MEMS loop heat pipe for electronics cooling applications, Journal of micromechanics and microengineering 15, No. 2, 313-321 (2005)
[1925] Kimura, Y.: Steady and transient heat transfer characteristics of flat micro heatpipe, Furukawa review, No. 27, 3-8 (2005)
[1926] Maydanik, Y. F.: Miniature loop heat pipes - a promising means for cooling electronics, IEEE transactions on components and packaging technologies 28, No. 2, 290-296 (2005)
[1927] Rosas, C.: Improvement of the cooling process of oil-immersed electrical transformers using heat pipes, IEEE transactions on power delivery 20, No. 3, 1955-1961 (2005)
[1928] Shimura, T.: Development of heatpipe-based remote heatsinks for desktop pcs, Furukawa review, No. 27, 20-24 (2005)
[1929] M. Ivanova et al., Heat pipe integrated in direct bonded copper (DBC) technology for the cooling of power electronics packaging. in PESC Record - IEEE Annual Power Electronics Specialists Conference. 2005.
[1930] Yu, X.: Development of a plate-pin fin heat sink and its performance comparisons with a plate fin heat sink, Applied thermal engineering 25, No. 2-3, 173-182 (2005)
[1931] Ong, K. E.: Optimization of fins used in electronic packaging, Microelectronics international 22, No. 1, 10-15 (2005)
[1932] Li, C.; Wirtz, R. A.: Development of a high performance heat sink based on screen-fin technology, IEEE transactions on components and packaging technologies 28, No. 1, 80-87 (2005)
[1933] Krishnan, S.; Garimella, S. V.; Kang, S. S.: A novel hybrid heat sink using phase change materials for transient thermal management of electronics, IEEE transactions on components and packaging technologies 28, No. 2, 281-289 (2005)
[1934] N. Popova et al., Thermal management for stacked 3D microelectronic packages. in PESC Record - IEEE Annual Power Electronics Specialists Conference, 2005.
[1935] Mulay, V.: Effect of the location and the properties of thermostatic expansion valve sensor bulb on the stability of a refrigeration system, Journal of heat transfer 127, No. 1, 85-94 (2005)
[1936] Karajgikar, S.: Impact of area contact between sensor bulb and evaporator return line on modular refrigeration unit: computational and experimental, Journal of heat transfer 127, No. 1, 95-100 (2005)
[1937] Gima, S.: Experimental study on CPU cooling system of closed-loop two-phase thermosyphon, Heat transfer - asian research 34, No. 3, 147-159 (2005)
[1938] Coursey, J. S.; Kim, J.; Boudreaux, P. J.: Performance of graphite foam evaporator for use in thermal management, Journal of electronic packaging, transactions of the ASME 127, No. 2, 127-134 (2005)
[1939] Cheang, S. Y.: Investigation of steady state and transient thermal management in portable telecommunication product - part 1, Journal of microelectronics and electronic packaging 2, No. 1, 40-54 (2005)
[1940] Shatalov, M.: Thermal analysis of flip-chip packaged 280 nm nitride-based deep ultraviolet light-emitting diodes, Applied physics letters 86, No. 20, 1-3 (2005)
[1941] Price, D. C.; Jr., B. E. Short: Thermal design of an airborne computer chassis with air-cooled, cast pin fin coldwalls, Journal of heat transfer 127, No. 1, 11-17 (2005)
[1942] Vargas, J. V. C.: Optimal ground tube length for cooling of electronics shelters, Heat transfer engineering 26, No. 10, 8-20 (2005)
[1943] Webb, R. L.: Next generation devices for electronic cooling with heat rejection to air, Journal of heat transfer 127, No. 1, 2-10 (2005)
[1944] Wu, T.; Ro, P. I.: Heat transfer performance of a cooling system using vibrating piezoelectric beams, Journal of micromechanics and microengineering 15, No. 1, 213-220 (2005)
[1945] Zappa, C. J.; Jessup, A. T.: High-resolution airborne infrared measurements of ocean skin temperature, IEEE geoscience and remote sensing letters 2, No. 2, 146-150 (2005)
[1946] Crow, W. T.; Kustas, W. P.: Utility of assimilating surface radiometric temperature observations for evaporative fraction and heat transfer coefficient retrieval, Boundary-layer meteorology 115, No. 1, 105-130 (2005)
[1947] Deng, Z.; Rees, S. J.; Spitler, J. D.: A model for annual simulation of standing column well ground heat exchangers, HVAC and R research 11, No. 4, 637-655 (2005)
[1948] Fernandez, M. D.: Validation of temperature simulation based on finite element analysis in substrates heated by electric cable, Transactions of the American society of agricultural engineers 48, No. 3, 1241-1251 (2005)
[1949] Fernandez, M. D.: Modelling the transient thermal behaviour of sand substrate heated by electric cables, Biosystems engineering 90, No. 2, 203-215 (2005)
[1950] Hochstein, M. P.; Bromley, C. J.: Measurement of heat flux from steaming ground, Geothermics 34, No. 2 SPEC. ISS., 133-160 (2005)
[1951] Li, X.; Zhao, J.; Zhou, Q.: Inner heat source model with heat and moisture transfer in soil around the underground heat exchanger, Applied thermal engineering 25, No. 10, 1565-1577 (2005)
[1952] Stepanenko, V. M.; Lykosov, V. N.: Numerical modeling of the heat and moisture transport in a lake-soil system, Russian meteorology and hydrology, No. 3, 69-75 (2005)
[1953] Song, W. K.: Thermal transfer analysis of unpaved and paved freezing soil media including buried pipelines, Numerical heat transfer; part A: applications 48, No. 6, 567-583 (2005)
[1954] Loui, J. P.; Karanam, U. M. R.: Heat transfer simulation in drag-Pick cutting of rocks, Tunnelling and underground space technology 20, No. 3, 263-270 (2005)
[1955] Best, M. J.; Cox, P. M.; Warrilow, D.: Determining the optimal soil temperature scheme for atmospheric modelling applications, Boundary-layer meteorology 114, No. 1, 111-142 (2005)
[1956] Fomin, S.: A borehole temperature during drilling in a fractured rock formation, International journal of heat and mass transfer 48, No. 2, 385-394 (2005)
[1957] Zeng, X.; Beljaars, A.: A prognostic scheme of sea surface skin temperature for modeling and data assimilation, Geophysical research letters 32, No. 14, 1-4 (2005)
[1958] Pruess, K.: Numerical studies of fluid leakage from a geologic disposal reservoir for CO2 show self-limiting feedback between fluid flow and heat transfer, Geophysical research letters 32, No. 14, 1-4 (2005)
[1959] Kaempfer, T. U.; Schneebeli, M.; Sokratov, S. A.: A microstructural approach to model heat transfer in snow, Geophysical research letters 32, No. 21, 1-5 (2005)
[1960] Louhenkilpi, S.: 3D steady state and transient simulation tools for heat transfer and solidification in continuous casting, Materials science and engineering A 413-414, 135-138 (2005)
[1961] Helenius, R.: The heat transfer during filling of a high-pressure die-casting shot sleeve, Materials science and engineering A 413-414, 52-55 (2005)
[1962] Pariona, M. M.; Mossi, A. C.: Numerical simulation of heat transfer during the solidification of pure iron in sand and mullite molds, Journal of the Brazilian society of mechanical sciences and engineering 27, No. 4, 399-406 (2005)
[1963] Yao, M.: Monitoring and analysis of local mould thermal behaviour in continuous casting of round billets, Ironmaking and steelmaking 32, No. 4, 359-368 (2005)
[1964] Guo, Z.: Modelling of materials properties and behaviour critical to casting simulation, Materials science and engineering A 413-414, 465-469 (2005)
[1965] Dour, G.: Development of a non-intrusive heat transfer coefficient gauge and its application to high pressure die casting: effect of the process parameters, Journal of materials processing technology 169, No. 2, 223-233 (2005)
[1966] Zhou, H.; Li, D.: Modeling and simulation of heat transfer for Glass bulb mold, Progress in natural science 15, No. 7, 650-655 (2005)
[1967] Kosar, V.; Gomzi, Z.; Antunoviä&dagger, S.; : Cure of polyester resin in a cylindrical mould heated by air, Thermochimica acta 433, No. 1 – 2, 134-141 (2005)
[1968] Abdullah, M. Z.; Bickerton, S.; Bhattacharyya, D.: Enhancement of convective heat transfer to polymer manufacturing molds, Polymer engineering and science 45, No. 1, 114-124 (2005)
[1969] Gao, Z.: Mechanism and simulation of external cooling in aluminum casting-rolling process, Transactions of nonferrous metals society of China (English edition) 15, No. 5, 1113-1119 (2005)
[1970] Zhang, L.: Fluid flow, heat transfer and inclusion motion in a four-strand billet continuous casting tundish, Steel research international 76, No. 11, 784-796 (2005)
[1971] Gu, M. Y.: Simulation of steel coil heat transfer in HPH furnace, Acta metallurgica sinica (English letters) 18, No. 5, 647-652 (2005)
[1972] Scutelnicu, E.; Constantin, E.; Iordachescu, M.: Heat transfer simulation in carbon steel - copper welded joints, Welding in the world 49, No. 9 SPEC. ISS., 361-367 (2005)
[1973] De, A.; Debroy, T.: Reliable calculations of heat and fluid flow during conduction mode laser welding through optimization of uncertain parameters, Welding journal (Miami, fla) 84, No. 7, 101-112 (2005)
[1974] Mahdavinejad, R.; Tolouei-Rad, M.; Sharifi-Bidgoli, H.: Heat transfer analysis of EDM process on silicon carbide, International journal of numerical methods for heat and fluid flow 15, No. 5, 483-502 (2005)
[1975] Zhao, H. T.; Yang, J. G.; Shen, J. H.: Study on modeling method for thermal error on CNC machine tool, Journal of Harbin institute of technology (New series) 12, No. SUPPL. 2, 9-12 (2005)
[1976] Bairi, A.; Laraqi, N.: Heat transfer across a solid-solid interface obtained by machining in a lathe, Journal of materials processing technology 169, No. 1, 89-93 (2005)
[1977] Sukaylo, V.: Numerical simulation of thermally induced workpiece deformation in turning when using various cutting fluid applications, Journal of materials processing technology 167, No. 2-3, 408-414 (2005)
[1978] Bao, Y.; Zhang, T.; Gawne, D. T.: Non-steady state heating of substrate and coating during thermal-spray deposition, Surface and coatings technology 194, No. 1, 82-90 (2005)
[1979] Buonanno, G.: Thermal analysis of a Glass bending process, Applied thermal engineering 25, No. 14 – 15, 2108-2121 (2005)
[1980] Cheng, X.; Jaluria, Y.: Optimization of a thermal manufacturing process: drawing of optical fibers, International journal of heat and mass transfer 48, No. 17, 3560-3573 (2005) · Zbl 1189.76166
[1981] Boldetti, C.: Measurement of deformation gradients in hot rolling of AA3004, Experimental mechanics 45, No. 6, 517-525 (2005)
[1982] Chang, H. J.: Hot powder pressing - an analysis of the thermo-mechanical behavior of the roller, Journal of materials processing technology 170, No. 1 – 2, 317-322 (2005)
[1983] Garber, E. A.: Modeling the thermal regime of a cold-rolling mill with allowance for differences in the cooling conditions for the top and bottom rolls, Metallurg, No. 6, 66-69 (2005)
[1984] Yevtushenko, A.; Matysiak, S. J.: On approximate solutions of temperature and thermal stresses in an elastic semi-space due to laser heating, Numerical heat transfer; part A: applications 47, No. 9, 899-915 (2005)
[1985] Palazzo, G.; Pasquino, R.: The modelling of thin sheet forming by laser beams heat transfer models toward deformation analysis, Mathematical and computer modelling 42, No. 9 – 10, 1131-1136 (2005) · Zbl 1081.80002
[1986] Yilbas, B. S.; Arif, A. F. M.: Laser short-pulse heating with time-varying intensity and thermal stress development in the lattice subsystem, Proceedings of the institution of mechanical engineers, part C: Journal of mechanical engineering science 219, No. 1, 73-82 (2005)
[1987] Pfefferkorn, F. E.; Incropera, F. P.; Shin, Y. C.: Heat transfer model of semi-transparent ceramics undergoing laser-assisted machining, International journal of heat and mass transfer 48, No. 10, 1999-2012 (2005)
[1988] Jiang, Y. Z.; Yang, R.: Numerical study for flow and heat transfer in a rectangular chemical-vapor-deposition chamber, Journal of the chinese society of mechanical engineers, transactions of the chinese institute of engineers, series C/chung-kuo chi hsueh Kung ch’eng hsuebo pao 26, No. 1 – 2, 115-119 (2005)
[1989] Lehtinen, A.; Karvinen, R.: Analytical solution for heat transfer in temperature gradient calendering, Paperi ja puu/paper and timber 87, No. 8, 525-527 (2005)
[1990] Maksoud, T. M. A.: Heat transfer model for creep-feed grinding, Journal of materials processing technology 168, No. 3, 448-463 (2005)
[1991] Troyani, N.; Montano, L. E.; Ayala, O. M.: Numerical modelling of thermal evolution in hot metal coiling, Revista de metalurgia (Madrid) SPEC. VOL., 488-492 (2005)
[1992] Joodaki, M.: Heat transfer improvement in quasi-monolithic integration technology, Journal of microlithography, microfabrication and microsystems 4, No. 3 (2005)
[1993] Chang, W. J.; Yang, Y. C.; Lin, C. M.: Estimating thermal transport in deep X-ray lithography with an inversion method, Applied physics B: lasers and optics 81, No. 4, 543-548 (2005)
[1994] Sivill, L.; Ahtila, P.; Taimisto, M.: Thermodynamic simulation of dryer section heat recovery in paper machines, Applied thermal engineering 25, No. 8 – 9, 1273-1292 (2005)
[1995] Reboussin, Y.: A numerical approach for the study of Glass furnace regenerators, Applied thermal engineering 25, No. 14 – 15, 2299-2320 (2005)
[1996] Selsil, A.: Mathematical modelling of heat transfer in a catalytic reformer, IMA journal of applied mathematics (Institute of mathematics and its applications) 70, No. 2, 201-220 (2005) · Zbl 1081.80005
[1997] Baake, E.; Umbrashko, A.; Jakovics, A.: Numerical modelling of metallurgical processes using LES, Archives of electrical engineering 54, No. 214, 425-437 (2005)
[1998] Giani, L.; Groppi, G.; Tronconi, E.: Heat transfer characterization of metallic foams, Industrial and engineering chemistry research 44, No. 24, 9078-9085 (2005)
[1999] Habib, M. A.; Ben-Mansour, R.; Antar, M. A.: Flow field and thermal characteristics in a model of a tangentially fired furnace under different conditions of burner tripping, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 10, 909-920 (2005)
[2000] Li, S. Q.: A mathematical model of heat transfer in a rotary kiln thermo-reactor, Chemical engineering and technology 28, No. 12, 1480-1489 (2005)
[2001] Cheng, W. T.; Huang, C. N.; Du, S. W.: Three dimensional iron flow and heat transfer in the hearth of a blast furnace during tapping process, Chemical engineering science 60, No. 16, 4485-4492 (2005)
[2002] Kumar, S.: Heat transfer analysis and estimation of refractory wear in an iron blast furnace hearth using finite element method, ISIJ international 45, No. 8, 1122-1128 (2005)
[2003] Li, D.; Wells, M. A.: Effect of subsurface thermocouple installation on the discrepancy of the measured thermal history and predicted surface heat flux during a quench operation, Metallurgical and materials transactions B: process metallurgy and materials processing science 36, No. 3, 343-354 (2005)
[2004] Badescu, V.: Optimal control of forced cool-down processes, International journal of heat and mass transfer 48, No. 3 – 4, 741-748 (2005) · Zbl 1121.80343
[2005] Bendada, A.; Erchiqui, F.; Kipping, A.: Understanding heat transfer mechanisms during the cooling phase of blow molding using infrared thermography, NDT and E international 38, No. 6, 433-441 (2005)
[2006] An, Q. L.: High efficiency cooling technology based on Green manufacturing, Transactions of Nanjing university of aeronautics and astronautics 22, No. 3, 230-233 (2005)
[2007] Yu, Q.: Laminar flow cooling behavior of wide heavy-thickness coils, Iron and steel technology 2, No. 8, 72-81 (2005)
[2008] Chaffotte, F.: Optimizing gas quenching technology through modeling of heat transfer, Industrial heating 72, No. 11, 49-53 (2005)
[2009] Banka, A. L.: Practical applications of CFD in heat processing, Heat treating progress 5, No. 5, 44-49 (2005)
[2010] Yapici, H.; Baştürk, G.: Numerical solutions of transient temperature and thermally induced stress distributions in a solid disk heated with radially periodic expanding and contracting ring heat flux, Journal of materials processing technology 159, No. 1, 99-112 (2005)
[2011] Polozine, A.; Schaeffer, L.: Exact and approximate methods for determining the thermal parameters of the forging process, Journal of materials processing technology 170, No. 3, 611-615 (2005)
[2012] Guo, Z. S.; Du, S.; Zhang, B.: Temperature field of thick thermoset composite laminates during cure process, Composites science and technology 65, No. 3 – 4, 517-523 (2005)
[2013] Hassan, N.: A heat transfer analysis of the fiber placement composite manufacturing process, Journal of reinforced plastics and composites 24, No. 8, 869-888 (2005)
[2014] Kusiak, A.; Battaglia, J. L.; Rech, J.: Tool coatings influence on the heat transfer in the tool during machining, Surface and coatings technology 195, No. 1, 29-40 (2005)
[2015] Rech, J.; Battaglia, J. L.; Moisan, A.: Thermal influence of cutting tool coatings, Journal of materials processing technology 159, No. 1, 119-124 (2005)
[2016] Sarikaya, O.; Islamoglu, Y.; Celik, E.: Finite element modeling of the effect of the ceramic coatings on heat transfer characteristics in thermal barrier applications, Materials and design 26, No. 4, 357-362 (2005)
[2017] Barba, A. A.: Thermal treatments of foods: a predictive general-purpose code for heat and mass transfer, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 7, 625-631 (2005)
[2018] Loreto, Di M.: Experimentation of melting kinetics control in a convective food thawing process, IEEE transactions on control systems technology 13, No. 5, 826-831 (2005)
[2019] Amarante, A.; Lanoiselle, J. L.: Heat transfer coefficients measurement in industrial freezing equipment by using heat flux sensors, Journal of food engineering 66, No. 3, 377-386 (2005)
[2020] Campanone, L. A.; Zaritzky, N. E.: Mathematical analysis of microwave heating process, Journal of food engineering 69, No. 3, 359-368 (2005)
[2021] Welti-Chanes, J.; Vergara-Balderas, F.; Bermúdez-Aguirre, D.: Transport phenomena in food engineering: basic concepts and advances, Journal of food engineering 67, No. 1 – 2, 113-128 (2005)
[2022] Lucas, T.: MRI quantification of ice gradients in dough during freezing or thawing processes, Journal of food engineering 71, No. 1, 98-108 (2005)
[2023] Lucas, T.; Le Ray, D.; Davenel, A.: Chilling and freezing of part-baked bread. Part I: An MRI signal analysis, Journal of food engineering 70, No. 2, 139-149 (2005)
[2024] Budzaki, S.; Seruga, B.: Determination of convective heat transfer coefficient during frying of potato dough, Journal of food engineering 66, No. 3, 307-314 (2005)
[2025] Akpinar, E. K.: Evaluation of convective heat transfer coefficient of various crops in cyclone type dryer, Energy conversion and management 46, No. 15 – 16, 2439-2454 (2005)
[2026] Edmondson, P. T.: Modelling of heat transfer, mass transfer and flavour development in chocolate crumb, Food and bioproducts processing 83, No. 2 C, 89-98 (2005)
[2027] Yu, C.; Gunasekaran, S.: Modeling of melt conveying and heat transfer in a twin-screw cheese stretcher, Journal of food engineering 70, No. 2, 245-252 (2005)
[2028] Oroszvari, B. K.: The mechanisms controlling heat and mass transfer on frying of beefburgers. Part 2: the influence of the pan temperature and patty diameter, Journal of food engineering 71, No. 1, 18-27 (2005)
[2029] Oroszvari, B. K.; Sjoholm, I.; Tornberg, E.: The mechanisms controlling heat and mass transfer on frying of beefburgers. I. the influence of the composition and comminution of meat raw material, Journal of food engineering 67, No. 4, 499-506 (2005)
[2030] Maidment, G. G.: An investigation of a novel cooling system for chilled food display cabinets, Proceedings of the institution of mechanical engineers, part E: journal of process mechanical engineering 219, No. 2, 157-165 (2005)
[2031] Senn, S. M.; Poulikakos, D.: Multiphase transport phenomena in the diffusion zone of a PEM fuel cell, Journal of heat transfer 127, No. 11, 1245-1259 (2005)
[2032] Shao, Q.: Dynamic thermal model and temperature control of proton exchange membrane fuel cell stack, Chinese journal of chemical engineering 13, No. 2, 218-224 (2005)
[2033] Cheng, C. H.; Chang, M. H.: Predictions of internal temperature distribution of PEMFC by non-destructive inverse method, Journal of power sources 139, No. 1 – 2, 115-125 (2005)
[2034] Ramousse, J.: Modelling of heat, mass and charge transfer in a PEMFC single cell, Journal of power sources 145, No. 2, 416-427 (2005)
[2035] Promislow, K.; Wetton, B.: A simple, mathematical model of thermal coupling in fuel cell stacks, Journal of power sources 150, No. 1 – 2, 129-135 (2005)
[2036] Ju, H.; Meng, H.; Wang, C. Y.: A single-phase, non-isothermal model for PEM fuel cells, International journal of heat and mass transfer 48, No. 7, 1303-1315 (2005) · Zbl 1189.76751
[2037] Lu, Y.; Schaefer, L.; Li, P.: Numerical simulation of heat transfer and fluid flow of a flat-tube high power density solid oxide fuel cell, Journal of fuel cell science and technology 2, No. 1, 65-69 (2005)
[2038] Coutelieris, F. A.; Douvartzides, S. L.; Tsiakaras, P. E.: Heat transfer phenomena in a solid oxide fuel cell: an analytical approach, Chemical engineering science 60, No. 16, 4423-4430 (2005)
[2039] Chen, R.; Zhao, T. S.: Mathematical modeling of a passive-feed DMFC with heat transfer effect, Journal of power sources 152, No. 1 – 2, 122-130 (2005)
[2040] Faghri, A.; Guo, Z.: Challenges and opportunities of thermal management issues related to fuel cell technology and modeling, International journal of heat and mass transfer 48, No. 19 – 20, 3891-3920 (2005)
[2041] Li, D.: Thermal transport in nanostructured solid-state cooling devices, Journal of heat transfer 127, No. 1, 108-114 (2005)
[2042] Ghai, S. S.: A novel heat transfer model and its application to information storage systems, Journal of applied physics 97, No. 10, 1-3 (2005)
[2043] Jou, D.: A phenomenological scaling approach for heat transport in nano-systems, Applied mathematics letters 18, No. 8, 963-967 (2005) · Zbl 1081.80001
[2044] Li, H.; Liu, B.; Chong, T. C.: Thermal study of nanometer-spaced head-disk systems, Japanese journal of applied physics, part 1: regular papers and short notes and review papers 44, No. 10, 7445-7447 (2005)
[2045] Keblinski, P.; Eastman, J. A.; Cahill, D. G.: Nanofluids for thermal transport, Materials today 8, No. 6, 36-44 (2005)
[2046] Vadasz, J. J.; Govender, S.; Vadasz, P.: Heat transfer enhancement in nano-fluids suspensions: possible mechanisms and explanations, International journal of heat and mass transfer 48, No. 13, 2673-2683 (2005)
[2047] Haldeman, C. W.: Aerodynamic and heat-flux measurements with predictions on a modern one and one-half state high pressure transonic turbine, Journal of turbomachinery 127, No. 3, 522-531 (2005)
[2048] Holmberg, D. G.; Diller, T. E.: Simultaneous heat flux and velocity measurements in a transonic turbine cascade, Journal of turbomachinery 127, No. 3, 502-506 (2005)
[2049] Bellucci, V.: Thermoacoustic modeling of a gas turbine combustor equipped with acoustic dampers, Journal of turbomachinery 127, No. 2, 372-379 (2005)
[2050] Muwanga, R. S.: Effect of input variability on the performance of turbine blade thermal design using Monte Carlo simulation: an exploratory study, Journal of heat transfer 127, No. 4, 404-413 (2005)
[2051] Sierra, F. Z.: Prediction of temperature front in a gas turbine combustion chamber, Applied thermal engineering 25, No. 8 – 9, 1127-1140 (2005)
[2052] Sveningsson, A.; Davidson, L.: Computations of flow field and heat transfer in a stator vane passage using the V2-F turbulence model, Journal of turbomachinery 127, No. 3, 627-634 (2005)
[2053] Mahulikar, S. P.; Kolhe, P. S.; Rao, G. A.: Skin-temperature prediction of aircraft rear fuselage with multimode thermal model, Journal of thermophysics and heat transfer 19, No. 1, 114-124 (2005)
[2054] Boutarfa, R.; Harmand, S.: Local convective heat transfer for laminar and turbulent flow in a rotor-stator system, Experiments in fluids 38, No. 2, 209-221 (2005)
[2055] Couch, E.: Comparison of measurements and predictions for blowing from a turbine blade tip, Journal of propulsion and power 21, No. 2, 335-343 (2005)
[2056] Ito, S.: Conceptual design and cooling blade development of 1700Â^\(\circ C\) class high-temperature gas turbine, Journal of engineering for gas turbines and power 127, No. 2, 358-368 (2005)
[2057] Ahn, J.; Mhetras, S.; Han, J. C.: Film-cooling effectiveness on a gas turbine blade tip using pressure-sensitive paint, Journal of heat transfer 127, No. 5, 521-530 (2005)
[2058] Christophel, J. R.: Measured adiabatic effectiveness and heat transfer for blowing from the tip of a turbine blade, Journal of turbomachinery 127, No. 2, 251-262 (2005)
[2059] Christophel, J. R.; Thole, K. A.; Cunha, F. J.: Cooling the tip of a turbine blade using pressure side holes - part II: Heat transfer measurements, Journal of turbomachinery 127, No. 2, 278-286 (2005)
[2060] Christophel, J. R.; Thole, K. A.; Cunha, F. J.: Cooling the tip of a turbine blade using pressure side holes - part I: a diabatic effectiveness measurements, Journal of turbomachinery 127, No. 2, 270-277 (2005)
[2061] Yakut, K.: Effects of tapes with double-sided delta-winglets on heat and vortex characteristics, Applied energy 80, No. 1, 77-95 (2005)
[2062] Ngoma, G. D.; Sadiki, A.: Finned tube banks configuration for the utilization of waste heat from a gas turbine station, International journal of thermal sciences 44, No. 8, 799-807 (2005)
[2063] Hamada, Y.: Anisotropic heat transfer in composites based on high-thermal conductive carbon fibers, Energy 30, No. 2-4 SPEC. ISS., 221-233 (2005)
[2064] Yumrutas, R.: Computational model for a ground coupled space cooling system with an underground energy storage tank, Energy and buildings 37, No. 4, 353-360 (2005)
[2065] Yumrutas, R.; Unsal, M.: Modeling of a space cooling system with underground storage, Applied thermal engineering 25, No. 2 – 3, 227-239 (2005)
[2066] Wang, J. C.: Charge and discharge characteristics of a thermal energy storage device, Experimental heat transfer 18, No. 1, 45-60 (2005)
[2067] Zhang, J.: A review of heat transfer issues in hydrogen storage technologies, Journal of heat transfer 127, No. 12, 1391-1399 (2005)
[2068] Ahmad, R. A.: Convective heat transfer in the reusable solid rocket motor of the space transportation system, Heat transfer engineering 26, No. 10, 30-45 (2005)
[2069] Shang, W.; Besant, R. W.: Effects of pore size variations on regenerative wheel performance, Journal of engineering for gas turbines and power 127, No. 1, 121-135 (2005)
[2070] Tagawa, M.: Thermal-field structure of a non-premixed turbulent flame formed in a strong pressure-gradient flow, International journal of heat and fluid flow 26, No. 6, 905-913 (2005)
[2071] Ming, P.: Research on marine boiler’s pressurized combustion and heat transfer, Journal of thermal science 14, No. 1, 76-80 (2005)
[2072] Fursenko, R. V.; Minaev, S. S.: Flame stability in a system with counterflow heat exchange, Combustion, explosion and shock waves 41, No. 2, 133-139 (2005)
[2073] Talib, R. Abu: Detailed investigation of heat flux measurements made in a standard propane-air fire-certification burner compared to levels derived from a low-temperature analog burner, Journal of engineering for gas turbines and power 127, No. 2, 249-256 (2005)
[2074] Nellis, G.; Hughes, C.; Pfotenhauer, J.: Heat transfer coefficient measurements for mixed gas working fluids at cryogenic temperatures, Cryogenics 45, No. 8, 546-556 (2005)
[2075] Melnikovsky, L. A.: Heat transfer in superfluids: effect of gravity, Journal of low temperature physics 138, No. 1 – 2, 61-66 (2005)
[2076] Fujii, T.: The dynamic characteristics of a thermal control system using latent heat: comparison between analytical and experimental results, Heat transfer - asian research 34, No. 8, 564-578 (2005)
[2077] Sousa, J. M. M.: An experimental investigation of fluid flow and wall temperature distributions in an automotive headlight, International journal of heat and fluid flow 26, No. 5, 709-721 (2005)
[2078] Kaynakli, O.; Kilic, M.: An investigation of thermal comfort inside an automobile during the heating period, Applied ergonomics 36, No. 3, 301-312 (2005)
[2079] Kaynakli, O.; Pulat, E.; Kilic, M.: Thermal comfort during heating and cooling periods in an automobile, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 5, 449-458 (2005)
[2080] Asano, H.: Turbulent mixing of hot and cold airflows in automobile HVAC unit (characteristics of velocity and temperature fields in mixing T-junction), Nihon kikai gakkai ronbunshu, B hen/transactions of the Japan society of mechanical engineers, part B 71, No. 712, 2970-2978 (2005)
[2081] Ayub, Z. H.: Recent developments in CO2 heat transfer, Heat transfer engineering 26, No. 6, 3-6 (2005)
[2082] Tu, S. T.: Numerical simulation of saturation behavior of physical properties in composites with randomly distributed second-phase, Journal of composite materials 39, No. 7, 617-631 (2005)
[2083] Fiedler, T.: Numerical and analytical calculation of the orthotropic heat transfer properties of fibre reinforced materials, Materialwissenschaft und werkstofftechnik 36, No. 10, 602-607 (2005)
[2084] Kodur, V. K. R.; Bisby, L. A.; Foo, S. H. C.: Thermal behavior of fire-exposed concrete slabs reinforced with fiber-reinforced polymer bars, ACI structural journal 102, No. 6, 799-807 (2005)
[2085] Chung, J. H.; Consolazio, G. R.: Numerical modeling of transport phenomena in reinforced concrete exposed to elevated temperatures, Cement and concrete research 35, No. 3, 597-608 (2005)
[2086] Ushakov, V. M.; Matvienko, O. V.: Numerical investigation of the heat exchange and firing of reactive channel walls by a high-temperature swirling-gas glow, Journal of engineering physics and thermophysics 78, No. 3, 541-547 (2005)
[2087] Rossi, R. M.; Bolli, W. P.: Phase change materials for improvement of heat protection, Advanced engineering materials 7, No. 5, 368-373 (2005)
[2088] Deosarkar, M. P.; Mahamunkar, M. A.; Shirsath, S. R.: Ultrasonic waves for rapid heat transfer, Chemical engineering world 40, No. 11 (2005)
[2089] Prosek, T.; Novak, P.; Bystriansky, J.: Influence of heat flux and surface temperature on the intergranular corrosion of stainless steel, Materials and corrosion 56, No. 5, 312-317 (2005)
[2090] Kuosa, M.: Numerical and experimental modelling of gas flow and heat transfer in the air gap of an electric machine. Part II: Grooved surfaces, Journal of thermal science 14, No. 1, 48-55 (2005)
[2091] Mhaisekar, A.; Kazmierczak, M. J.; Banerjee, R.: Three-dimensional numerical analysis of convection and conduction cooling of spherical biocrystals with localized heating from synchrotron X-ray beams, Journal of synchrotron radiation 12, No. 3, 318-328 (2005)
[2092] Chen, L.; Sun, F.; Wu, C.: Thermoelectric-generator with linear phenomenological heat-transfer law, Applied energy 81, No. 4, 358-364 (2005)
[2093] De Miguel, A.; Bilbao, J.: Test reference year generation from meteorological and simulated solar radiation data, Solar energy 78, No. 6, 695-703 (2005)
[2094] Verevochkin, Y. G.; Startsev, S. A.: Effect of absorption of solar radiation by water of different optical types on convection and heat transfer just under the air-water interface: the case of zero wind speed, Journal of fluid mechanics 523, 109-120 (2005) · Zbl 1081.76595
[2095] Mahajan, R. L.; Fichera, B. M.; Horst, T. W.: Mechanically aspirated radiation shields: a CFD and neural network design analysis, International journal of heat and mass transfer 48, No. 14, 2856-2867 (2005) · Zbl 1189.76442
[2096] Lund, P. D.: Sizing and applicability considerations of solar combisystems, Solar energy 78, No. 1, 59-71 (2005)
[2097] Joshi, S. V.; Bokil, R. S.; Nayak, J. K.: Test standards for thermosyphon-type solar domestic hot water system: review and experimental evaluation, Solar energy 78, No. 6, 781-798 (2005)
[2098] Jordan, U.; Furbo, S.: Thermal stratification in small solar domestic storage tanks caused by draw-offs, Solar energy 78, No. 2, 291-300 (2005)
[2099] Johannes, K.: Comparison of solar water tank storage modelling solutions, Solar energy 79, No. 2, 216-218 (2005)
[2100] Huang, B. J.; Lee, J. P.; Chyng, J. P.: Heat-pipe enhanced solar-assisted heat pump water heater, Solar energy 78, No. 3, 375-381 (2005)
[2101] Furbo, S.: Performance improvement by discharge from different levels in solar storage tanks, Solar energy 79, No. 5, 431-439 (2005)
[2102] Furbo, S.; Vejen, N. K.; Shah, L. J.: Thermal performance of a large low flow solar heating system with a highly thermally stratified tank, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 15-20 (2005)
[2103] Ito, S.; Miura, N.; Takano, Y.: Studies of heat pumps using direct expansion type solar collectors, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 60-64 (2005)
[2104] Furbo, S.: Smart solar tanks for small solar domestic hot water systems, Solar energy 78, No. 2, 269-279 (2005)
[2105] Esen, M.; Esen, H.: Experimental investigation of a two-phase closed thermosyphon solar water heater, Solar energy 79, No. 5, 459-468 (2005)
[2106] Xiaowu, W.; Ben, H.: Exergy analysis of domestic-scale solar water heaters, Renewable and sustainable energy reviews 9, No. 6, 638-645 (2005)
[2107] Wang, Y.; Davidson, J.; Francis, L.: Scaling in polymer tubes and interpretation for use in solar water heating systems, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 3-14 (2005)
[2108] Umurzakova, M. A.: Calculation of the efficient heat-transfer coefficient of solar turbulator receivers, Applied solar energy (English translation of geliotekhnika) 41, No. 1, 84-86 (2005)
[2109] Smyth, M.: Experimental comparison of alternative convection suppression arrangements for concentrating integral collector storage solar water heaters, Solar energy 78, No. 2, 223-233 (2005)
[2110] Morrison, G. L.; Budihardjo, I.; Behnia, M.: Measurement and simulation of flow rate in a water-in-Glass evacuated tube solar water heater, Solar energy 78, No. 2, 257-267 (2005)
[2111] Li, M.: Study on intermittent refrigeration phenomenon for solar solid adsorption refrigeration, Applied thermal engineering 25, No. 11 – 12, 1614-1622 (2005)
[2112] Hernandez, J. I.: Study of a solar booster assisted ejector refrigeration system with r134a, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 53-59 (2005)
[2113] Mers, A. A.; Mimet, A.: Numerical study of heat and mass transfer in adsorption porous medium heated by solar energy: boubnov-Galerkin method, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 717-723 (2005)
[2114] Janarthanan, B.; Chandrasekaran, J.; Kumar, S.: Evaporative heat loss and heat transfer for open- and closed-cycle systems of a floating tilted Wick solar still, Desalination 180, No. 1 – 3, 291-305 (2005)
[2115] Angeli, C.; Leonardi, E.: The effect of thermodiffusion on the stability of a salinity gradient solar pond, International journal of heat and mass transfer 48, No. 21 – 22, 4633-4639 (2005) · Zbl 1189.76570
[2116] Akhatov, Z. S.: Heat balance of a hotbed-type solar distiller with regenerative heat utilization, Applied solar energy (English translation of geliotekhnika) 41, No. 2, 25-28 (2005)
[2117] Abakr, Y. A.; Ismail, A. F.: Theoretical and experimental investigation of a novel multistage evacuated solar still, Journal of solar energy engineering, transactions of the ASME 127, No. 3, 381-385 (2005)
[2118] Tanaka, H.; Nakatake, Y.: A simple and highly productive solar still: a vertical multiple-effect diffusion-type solar still coupled with a flat-plate mirror, Desalination 173, No. 3, 287-300 (2005)
[2119] Tanaka, H.; Nakatake, Y.; Tanaka, M.: Indoor experiments of the vertical multiple-effect diffusion-type solar still coupled with a heat-pipe solar collector, Desalination 177, No. 1 – 3, 291-302 (2005)
[2120] Kerdchang, P.: Development of a new solar thermal engine system for circulating water for aeration, Solar energy 78, No. 4 SPEC. ISS., 518-527 (2005)
[2121] Sharma, S. D.: Thermal performance of a solar cooker based on an evacuated tube solar collector with a PCM storage unit, Solar energy 78, No. 3, 416-426 (2005)
[2122] Gupta, R.; Tiwari, G. N.: Thermal modelling of a greenhouse having a north wall using periodic analysis and its experimental validation, International journal of ambient energy 26, No. 3, 115-128 (2005)
[2123] Ghosal, M. K.: Modeling and comparative thermal performance of ground air collector and Earth air heat exchanger for heating of greenhouse, Energy and buildings 37, No. 6, 613-621 (2005)
[2124] Ozgener, O.; Hepbasli, A.: Experimental performance analysis of a solar assisted ground-source heat pump greenhouse heating system, Energy and buildings 37, No. 1, 101-110 (2005)
[2125] Lazarov, V.: Hybrid solar collector, Journal of materials processing technology 161 (1-2 SPEC. ISS.), 229-233 (2005)
[2126] Ho, C. D.; Yeh, H. M.; Wang, R. C.: Heat-transfer enhancement in double-pass flat-plate solar air heaters with recycle, Energy 30, No. 15, 2796-2817 (2005)
[2127] Ho, C. D.; Yeh, C. W.; Hsieh, S. M.: Improvement in device performance of multi-pass flat-plate solar air heaters with external recycle, Renewable energy 30, No. 10, 1601-1621 (2005)
[2128] Ghoneim, A. A.: Performance optimization of solar collector equipped with different arrangements of square-celled honeycomb, International journal of thermal sciences 44, No. 1, 95-105 (2005)
[2129] Facao, J.; Oliveira, A. C.: The effect of condenser heat transfer on the energy performance of a plate heat pipe solar collector, International journal of energy research 29, No. 10, 903-912 (2005)
[2130] Gawlik, K.; Christensen, C.; Kutscher, C.; Numerical, A.; Unglazed, Experimental Investigation Of Low-Conductivity; Heaters, Transpired Solar Air: Journal of solar energy engineering, Transactions of the ASME 127, No. 1, 153-155 (2005)
[2131] Ajam, H.; Farahat, S.; Sarhaddi, F.: Exergetic optimization of solar air heaters and comparison with energy analysis, International journal of thermodynamics 8, No. 4, 183-190 (2005)
[2132] Bairi, A.; Laraqi, N.; De Maria, J. M. Garcia: Importance of radiative heat exchange in 2D closed diode cavities applied to solar collectors and building, International journal of sustainable energy 24, No. 1, 33-44 (2005)
[2133] Togrul, I. T.; Pehlivan, D.: Effect of packing in the airflow passage on the performance of a solar air-heater with conical concentrator, Applied thermal engineering 25, No. 8-9, 1349-1363 (2005)
[2134] Yu, Z. T.: Investigation and analysis on a cellular heat pipe flat solar heater, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 2, 122-128 (2005)
[2135] Riffat, S. B.; Zhao, X.; Doherty, P. S.: Developing a theoretical model to investigate thermal performance of a thin membrane heat-pipe solar collector, Applied thermal engineering 25, No. 5-6, 899-915 (2005)
[2136] Sahu, M. M.; Bhagoria, J. L.: Augmentation of heat transfer coefficient by using 90Â^\(\circ \) broken transverse ribs on absorber plate of solar air heater, Renewable energy 30, No. 13, 2057-2073 (2005)
[2137] Schuler, A.: Potential of quarterwave interference stacks for colored thermal solar collectors, Solar energy 79, No. 2, 122-130 (2005)
[2138] Shah, L. J.; Furbo, S.; Absorbers, Modeling Shadows On Evacuated Tubular Collectors With Cylindrical: Journal of solar energy engineering, Transactions of the ASME 127, No. 3, 333-342 (2005)
[2139] Maneewan, S.: Heat gain reduction by means of thermoelectric roof solar collector, Solar energy 78 (4 SPEC. ISS.), 495-503 (2005)
[2140] Naphon, P.: On the performance and entropy generation of the double-pass solar air heater with longitudinal fins, Renewable energy 30, No. 9, 1345-1357 (2005)
[2141] Litvinov, P. P.; Tver’yanovich, E. V.; Trushevskii, S. N.: Experiments on the operation of a solar thermal module with a stationary concentrator, Applied solar energy (English translation of geliotekhnika) 41, No. 2, 41-45 (2005)
[2142] Abanades, S.; Flamant, G.: Production of hydrogen by thermal methane splitting in a nozzle-type laboratory-scale solar reactor, International journal of hydrogen energy 30, No. 8, 843-853 (2005)
[2143] Aroutiounian, V. M.; Arakelyan, V. M.; Shahnazaryan, G. E.: Metal oxide photoelectrodes for hydrogen generation using solar radiation-driven water splitting, Solar energy 78, No. 5, 581-590 (2005)
[2144] Wieckert, C.; Model, Design Studies For A. Solar Reactor Based On A. Simple Radiative Heat Exchange: Journal of solar energy engineering, Transactions of the ASME 127, No. 3, 425-429 (2005)
[2145] Meier, A.: Multitube rotary kiln for the industrial solar production of lime, Journal of solar energy engineering, transactions of the ASME 127, No. 3, 386-395 (2005)
[2146] Licht, S.: Solar water splitting to generate hydrogen fuel - a photothermal electrochemical analysis, International journal of hydrogen energy 30, No. 5, 459-470 (2005)
[2147] Sogut, O. S.; Durmayaz, A.: Performance optimization of a solar driven heat engine with finite-rate heat transfer, Renewable energy 30, No. 9, 1329-1344 (2005)
[2148] Roger, M.; Buck, R.; Muller-Steinhagen, H.: Numerical and experimental investigation of a multiple air jet cooling system for application in a solar thermal receiver, Journal of heat transfer 127, No. 8, 863-876 (2005)
[2149] Schlaich, J.: Design of commercial solar updraft tower systems - utilization of solar induced convective flows for power generation, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 117-124 (2005)
[2150] Freid, A. P.: Solar blind pyrometer temperature measurements in high temperature solar thermal reactors: a method for correcting the system-sensor cavity reflection error, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 86-93 (2005)
[2151] Sun, J.: Modeling and experimental evaluation of passive heat sinks for miniature high-flux photovoltaic concentrators, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 138-145 (2005)
[2152] Kaushika, N. D.; Mishra, A.; Chakravarty, M.: Thermal analysis of solar biomass hybrid co-generation plants, International journal of sustainable energy 24, No. 4, 175-186 (2005)
[2153] Bozonnet, E.; Belarbi, R.; Allard, F.: Modelling solar effects on the heat and mass transfer in a street canyon, a simplified approach, Solar energy 79, No. 1, 10-24 (2005)
[2154] De La Flor, F. J. S.: Solar radiation calculation methodology for building exterior surfaces, Solar energy 79, No. 5, 513-522 (2005)
[2155] Martinez, P. J.; Velazquez, A.; Viedma, A.: Performance analysis of a solar energy driven heating system, Energy and buildings 37, No. 10, 1028-1034 (2005)
[2156] Oosthuizen, P. H.: The effect of coverings on heat transfer from a window to a room, Heat transfer engineering 26, No. 5, 47-65 (2005)
[2157] Shahid, H.; Naylor, D.: Energy performance assessment of a window with a horizontal venetian blind, Energy and buildings 37, No. 8, 836-843 (2005)
[2158] Weinlader, H.; Beck, A.; Fricke, J.: PCM-facade-panel for daylighting and room heating, Solar energy 78, No. 2, 177-186 (2005)
[2159] Zhai, X. Q.; Dai, Y. J.; Wang, R. Z.: Comparison of heating and natural ventilation in a solar house induced by two roof solar collectors, Applied thermal engineering 25, No. 5-6, 741-757 (2005)
[2160] Argiriou, A. A.: Numerical simulation and performance assessment of a low capacity solar assisted absorption heat pump coupled with a sub-floor system, Solar energy 79, No. 3, 290-301 (2005)
[2161] Filippin, C.: Response of conventional and energy-saving buildings to design and human dependent factors, Solar energy 78, No. 3, 455-470 (2005)
[2162] Lam, J. C.: Residential building envelope heat gain and cooling energy requirements, Energy 30, No. 7, 933-951 (2005)
[2163] Meillaud, F.; Gay, J. B.; Brown, M. T.: Evaluation of a building using the emergy method, Solar energy 79, No. 2, 204-212 (2005)
[2164] Saman, W.; Bruno, F.; Halawa, E.: Thermal performance of PCM thermal storage unit for a roof integrated solar heating system, Solar energy 78, No. 2, 341-349 (2005)
[2165] Cabeza, L. F.: Long term immersion corrosion tests on metal-PCM pairs used for latent heat storage in the 24 to 29Â^\(\circ C\) temperature range, Materials and corrosion 56, No. 1, 33-38 (2005)
[2166] Canbazoglu, S.: Enhancement of solar thermal energy storage performance using sodium thiosulfate pentahydrate of a conventional solar water-heating system, Energy and buildings 37, No. 3, 235-242 (2005)
[2167] Raab, S.; Mangold, D.; Müller-Steinhagen, H.: Validation of a computer model for solar assisted district heating systems with seasonal hot water heat store, Solar energy 79, No. 5, 531-543 (2005)
[2168] Brosseau, D.: Testing of thermocline filler materials and molten-salt heat transfer fluids for thermal energy storage systems in parabolic trough power plants, Journal of solar energy engineering, transactions of the ASME 127, No. 1, 109-116 (2005)
[2169] Nemchinsky, V.: Dissociation reactive thermal conductivity in a two-temperature plasma, Journal of physics D: Applied physics 38, No. 20, 3825-3831 (2005)
[2170] Cheng, K.: Effects of shroud gas on laminar argon plasma jets impinging on a substrate in ambient air, Kung cheng je Wu Li hsueh pao/journal of engineering thermophysics 26, No. 6, 1019-1021 (2005)
[2171] Kharchenko, V. N.; Zverev, V. N.: Heat and mass transfer in the model of a vortex plasmachemical reactor, Heat transfer research 36, No. 8, 697-702 (2005)
[2172] Wang, W.: Numerical simulation of fluid flow and heat transfer in a plasma spray gun, International journal of advanced manufacturing technology 26, No. 5-6, 537-543 (2005)
[2173] Wang, W. M.: Numerical simulation of fluid flow and heat transfer in a plasma sprayer, Jisuan wuli/chinese journal of computational physics 22, No. 1, 83-87 (2005)
[2174] Xu, D. Y.; Chen, X.; Pan, W.: Effects of natural convection on the characteristics of a long laminar argon plasma jet issuing horizontally into ambient air, International journal of heat and mass transfer 48, No. 15, 3253-3255 (2005) · Zbl 1189.76797
[2175] Xu, W. J.: A numerical simulation of temperature field in plasma-arc forming of sheet metal, Journal of materials processing technology 164-165, 1644-1649 (2005)
[2176] Gonzalez, J. J.: Numerical modelling of an electric arc and its interaction with the anode: part II. The three-dimensional model-influence of external forces on the arc column, Journal of physics D: Applied physics 38, No. 2, 306-318 (2005)
[2177] Yeh, F. B.; Wei, P. S.: Effects of plasma parameters on the temperature field in a workpiece experiencing solid-liquid phase transition, Journal of heat transfer 127, No. 9, 987-994 (2005)
[2178] Kersten, H.: Measurement of energy fluxes in plasma surface treatments, Die bestimmung von energieflüssen bei plasmaoberflächenprozessen 96, No. 12 (2005)
[2179] Nunomura, S.: Heat transfer in a two-dimensional crystalline complex (dusty) plasma, Physical review letters 95, No. 2, 1-4 (2005)
[2180] Borisov, Y. S.; Zatserkovny, A. S.; Krivtsun, I. V.: Convective-conductive and radiation heat exchange of plasma flow with particles of dispersed materials in plasma spraying, Avtomaticheskaya svarka, No. 6, 7-11 (2005)
[2181] Borisov, Y. S.; Zatserkovny, A. S.; Krivtsun, I. V.: Peculiarities of heat exchange between ionized gas and evaporating particle in plasma spraying, Avtomaticheskaya svarka, No. 7, 20-27 (2005)
[2182] Golosnoy, I. O.; Tsipas, S. A.; Clyne, T. W.: An analytical model for simulation of heat flow in plasma-sprayed thermal barrier coatings, Journal of thermal spray technology 14, No. 2, 205-214 (2005)
[2183] Xiong, H. B.: Melting and oxidation behavior of in-flight particles in plasma spray process, International journal of heat and mass transfer 48, No. 25-26, 5121-5133 (2005) · Zbl 1188.76271
[2184] Kumar, A.; Debroy, T.: Improving reliability of modelling heat and fluid flow in complex gas metal arc fillet welds - part II: Application to welding of steel, Journal of physics D: Applied physics 38, No. 1, 127-134 (2005)
[2185] Kumar, A.; Zhang, W.; Debroy, T.: Improving reliability of modelling heat and fluid flow in complex gas metal arc fillet welds - part I: An engineering physics model, Journal of physics D: Applied physics 38, No. 1, 119-126 (2005)
[2186] Kumar, A.: A smart bi-directional model of heat transfer and free surface flow in gas-metal-arc fillet welding for practising engineers, Welding in the world 49, No. 9-10, 32-48 (2005)
[2187] Tanaka, M.: Anode heat transfer in TIG arc and its effect on weld penetration, Yosetsu gakkai ronbunshu/quarterly journal of the Japan welding society 23, No. 3, 398-404 (2005)
[2188] Das, M.: Transient radiative heat transfer from a plasma produced by a capillary discharge, Journal of thermophysics and heat transfer 19, No. 4, 572-580 (2005)
[2189] Revaz, B.; Witz, G.; Flükiger, R.: Properties of the plasma channel in liquid discharges inferred from cathode local temperature measurements, Journal of applied physics 98, No. 11, 1-6 (2005)
[2190] Tazmeev, K. K.; Tazmeev, A. K.: Some specific features of heat and mass transfer of gas-discharge plasma with a liquid electrolytic cathode, Heat transfer research 36, No. 8, 623-629 (2005)
[2191] Abel, S.; Prasad, K. V.; Mahaboob, A.: Buoyancy force and thermal radiation effects in MHD boundary layer visco-elastic fluid flow over continuously moving stretching surface, International journal of thermal sciences 44, No. 5, 465-476 (2005)
[2192] Ali, A.; Mehmood, A.; Mohyuddin, M. R.: Lie group analysis of viscoelastic MHD aligned flow and heat transfer, Acta mechanica sinica/lixue xuebao 21, No. 4, 342-345 (2005) · Zbl 1200.76153
[2193] Siddheshwar, P. G.; Mahabaleswar, U. S.: Effects of radiation and heat source on MHD flow of a viscoelastic liquid and heat transfer over a stretching sheet, International journal of non-linear mechanics 40, No. 6, 807-820 (2005) · Zbl 1349.76906
[2194] Abo-Eldahab, E. M.; Salem, A. M.: MHD free-convection flow of a non-Newtonian power-law fluid at a stretching surface with a uniform free-stream, Applied mathematics and computation 169, No. 2, 806-818 (2005) · Zbl 1151.76625
[2195] Abo-Eldahab, E. M.; Salem, A. M.: MHD flow and heat transfer of non-Newtonian power-law fluid with diffusion and chemical reaction on a moving cylinder, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 8, 703-708 (2005)
[2196] Attia, H. A.: MHD Couette flow with variable physical properties, Modelling, measurement and control B 74, No. 2, 25-34 (2005)
[2197] Attia, H. A.: MHD Couette flow with temperature dependent viscosity and the ion slip, Tamkang journal of science and engineering 8, No. 1, 11-16 (2005)
[2198] Kalita, B.; Borkakati, A. K.: Exact solution for the unsteady plane MHD Couette flow and heat transfer with temperature dependent heat source/ sink, International journal of heat and technology 23, No. 1, 147-153 (2005)
[2199] Li, F. C.; Kunugi, T.; Serizawa, A.: MHD effect on flow structures and heat transfer characteristics of liquid metal-gas annular flow in a vertical pipe, International journal of heat and mass transfer 48, No. 12, 2571-2581 (2005) · Zbl 1189.76784
[2200] Maleque, K. A.; Sattar, M. A.: The effects of variable properties and Hall current on steady MHD laminar convective fluid flow due to a porous rotating disk, International journal of heat and mass transfer 48, No. 23-24, 4963-4972 (2005) · Zbl 1189.76786
[2201] Vasil’ev, E. N.; Nesterov, D. A.: The effect of radiative-convective heat transfer on the formation of current layer, High temperature 43, No. 3, 396-403 (2005)
[2202] Xenos, M.; Dimas, S.; Kafoussias, N.: MHD compressible turbulent boundary-layer flow with adverse pressure gradient, Acta mechanica 177, No. 1-4, 171-190 (2005) · Zbl 1078.76079
[2203] Zniber, K.; Oubarra, A.; Lahjomri, J.: Analytical solution to the problem of heat transfer in an MHD flow inside a channel with prescribed sinusoidal wall heat flux, Energy conversion and management 46, No. 7 – 8, 1147-1163 (2005)
[2204] Abo-Eldahab, E. M.; Azzam, G. E. D.A.: Thermal radiation effects on MHD flow past a semi-infinite inclined plate in the presence of mass diffusion, Heat and mass transfer/waerme- und stoffuebertragung 41, No. 12, 1056-1065 (2005)
[2205] Aldoss, T. K.; Al-Nimr, M. A.; Khadrawi, A. F.: Effect of the local acceleration term on the MHD transient free convection flow over a vertical plate, International journal of numerical methods for heat and fluid flow 15, No. 3, 296-305 (2005)
[2206] Al-Mudhaf, A.; Chamkha, A. J.: Similarity solutions for MHD thermosolutal Marangoni convection over a flat surface in the presence of heat generation or absorption effects, Heat and mass transfer/waerme- und stoffuebertragung 42, No. 2, 112-121 (2005)
[2207] Eldabe, N. T.: Chebyshev finite difference method for MHD flow of a micropolar fluid past a stretching sheet with heat transfer, Applied mathematics and computation 160, No. 2, 437-450 (2005) · Zbl 1299.76170
[2208] Khadrawi, A. F.; Odat, M. O.: Transient MHD free convection flow over a permeable vertical moving plate embedded in porous medium with uniform suction, International journal of heat and technology 23, No. 1, 81-87 (2005)
[2209] Mukhopadhyay, S.; Layek, G. C.; Samad, S. A.: Study of MHD boundary layer flow over a heated stretching sheet with variable viscosity, International journal of heat and mass transfer 48, No. 21-22, 4460-4466 (2005) · Zbl 1189.76787
[2210] Ouaf, M. E. M.: Exact solution of thermal radiation on MHD flow over a stretching porous sheet, Applied mathematics and computation 170, No. 2, 1117-1125 (2005) · Zbl 1103.76068
[2211] Duwairi, H. M.: Viscous and joule heating effects on forced convection flow from radiate isothermal porous surfaces, International journal of numerical methods for heat and fluid flow 15, No. 5, 429-440 (2005)
This reference list is based on information provided by the publisher or from digital mathematics libraries. Its items are heuristically matched to zbMATH identifiers and may contain data conversion errors. In some cases that data have been complemented/enhanced by data from zbMATH Open. This attempts to reflect the references listed in the original paper as accurately as possible without claiming completeness or a perfect matching.