Advances in Heat Transfer, Volume 58 presents the latest in a serial that highlights new advances in the field, with this updated volume presenting interesting chapters written by an international board of authors. Sample chapters in this new release include Nanoscale Thin Film Evaporation and Ice thermal energy storage modeling: A review.
1. 1 Introduction to nanofluids and hybrid nanofluids - p. 82 2. 2 Magnetohydrodynamic (MHD) flow of Casson CuO nanofluid over a stretching sheet with viscous dissipation, radiation, and heat generation/absorption - p. 90 3. 3 Bioconvective non-Newtonian magnetic nanofluid flow through a channel with stretching walls - p. 102 4. 4 MHD hybrid nanofluid flow past a stretching surface with a heat source/sink and Arrhenius activation energy - p. 125 5. 5 Concluding remarks: future areas of research and references - p. 140 6. Acknowledgments - p. 143 7. References - p. 152 8. Chapter Four: Ice thermal energy storage modeling: A review - p. 155 9. Abstract - p. 155 10. Nomenclature - p. 156 11. 1 Introduction - p. 158 12. 2 Governing equations and assumptions - p. 160 13. 3 Thermal resistance determinations - p. 186 14. 4 Heat transfer coefficient correlations - p. 191 15. 5 Modeling tools - p. 199 16. 6 Concluding remarks - p. 204 17. References - p. 206 18. Chapter Five: On heat transfer and thermal management of electrochemical devices - p. 207
Advances in Heat Transfer, Volume 58 presents the latest in a serial that highlights new advances in the field, with this updated volume presenting interesting chapters written by an international board of authors. Sample chapters in this new release include Nanoscale Thin Film Evaporation and Ice thermal energy storage modeling: A review.
1. 1 Introduction to nanofluids and hybrid nanofluids - p. 82 2. 2 Magnetohydrodynamic (MHD) flow of Casson CuO nanofluid over a stretching sheet with viscous dissipation, radiation, and heat generation/absorption - p. 90 3. 3 Bioconvective non-Newtonian magnetic nanofluid flow through a channel with stretching walls - p. 102 4. 4 MHD hybrid nanofluid flow past a stretching surface with a heat source/sink and Arrhenius activation energy - p. 125 5. 5 Concluding remarks: future areas of research and references - p. 140 6. Acknowledgments - p. 143 7. References - p. 152 8. Chapter Four: Ice thermal energy storage modeling: A review - p. 155 9. Abstract - p. 155 10. Nomenclature - p. 156 11. 1 Introduction - p. 158 12. 2 Governing equations and assumptions - p. 160 13. 3 Thermal resistance determinations - p. 186 14. 4 Heat transfer coefficient correlations - p. 191 15. 5 Modeling tools - p. 199 16. 6 Concluding remarks - p. 204 17. References - p. 206 18. Chapter Five: On heat transfer and thermal management of electrochemical devices - p. 207
