Advances in Heat Transfer, Volume 56, 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.
1. 1 Introduction - p. 53 2. 2 Volume averaging theory and macroscopic energy equations - p. 56 3. 3 Series and parallel models - p. 57 4. 4 Unit cell model and general expressions for stagnant thermal conductivity - p. 62 5. 5 Applications of unit cell model - p. 65 6. 6 Mathematical model for metal frame core structures - p. 84 7. 7 Isotropic and anisotropic metal frame core structures - p. 91 8. 8 Two- and three-dimensional frame core structures - p. 91 9. 9 Prismatic cellular metal honeycombs - p. 100 10. 10 Effective thermal conductivity tensor for three-dimensional metal frame core structures - p. 99 11. 11 Orthotropic structures and their effective thermal conductivity tensors - p. 102 12. 12 Anisotropic effective thermal conductivity tensor for a deformed octet truss structure - p. 103 13. 13 Conclusions - p. 108 14. Acknowledgments - p. 108 15. References - p. 108 16. Chapter Three: An intelligent strategy for phase change heat and mass transfer: Application of machine learning - p. 113 17. Chapter Four: Advances in vapor-liquid phase change for thermal management - p. 169 18. Chapter Five: Application of machine learning in heat transfer from correlations to design - p. 227 19. Chapter Six: Applicability of phase change materials for building envelopes in the U.S. according to ASHRAE standard - p. 251 20. Chapter Seven: Scaling of heat and mass transfer processes in adsorption column - p. 319 21. Chapter Eight: Near-junction thermal managements of electronics - p. 355 22. Abstract - p. 356 23. 1 Background - p. 356 24. 2 Ballistic heat conduction in nanostructures - p. 359 25. 3 Effective thermal conductivity of nanostructures - p. 374 26. 4 Thermal spreading resistance in ballistic-diffusive regime - p. 397 27. 5 Self-heating effect - p. 415 28. 6 Conclusion - p. 425 29. Acknowledgments - p. 427 30. References - p. 427 31. Chapter Nine: Factors influencing heat transfer mechanism in nucleate pool boiling: A comprehensive review with state of the art and future prospects - p. 435 32. Abstract - p. 435 33. Nomenclature - p. 436 34. 1 Introduction - p. 442 35. 2 State of the art literature - p. 441 36. 3 Potential future prospects - p. 572 37. 4 Concluding remarks - p. 573 38. References - p. 575
Advances in Heat Transfer, Volume 56, 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.
1. 1 Introduction - p. 53 2. 2 Volume averaging theory and macroscopic energy equations - p. 56 3. 3 Series and parallel models - p. 57 4. 4 Unit cell model and general expressions for stagnant thermal conductivity - p. 62 5. 5 Applications of unit cell model - p. 65 6. 6 Mathematical model for metal frame core structures - p. 84 7. 7 Isotropic and anisotropic metal frame core structures - p. 91 8. 8 Two- and three-dimensional frame core structures - p. 91 9. 9 Prismatic cellular metal honeycombs - p. 100 10. 10 Effective thermal conductivity tensor for three-dimensional metal frame core structures - p. 99 11. 11 Orthotropic structures and their effective thermal conductivity tensors - p. 102 12. 12 Anisotropic effective thermal conductivity tensor for a deformed octet truss structure - p. 103 13. 13 Conclusions - p. 108 14. Acknowledgments - p. 108 15. References - p. 108 16. Chapter Three: An intelligent strategy for phase change heat and mass transfer: Application of machine learning - p. 113 17. Chapter Four: Advances in vapor-liquid phase change for thermal management - p. 169 18. Chapter Five: Application of machine learning in heat transfer from correlations to design - p. 227 19. Chapter Six: Applicability of phase change materials for building envelopes in the U.S. according to ASHRAE standard - p. 251 20. Chapter Seven: Scaling of heat and mass transfer processes in adsorption column - p. 319 21. Chapter Eight: Near-junction thermal managements of electronics - p. 355 22. Abstract - p. 356 23. 1 Background - p. 356 24. 2 Ballistic heat conduction in nanostructures - p. 359 25. 3 Effective thermal conductivity of nanostructures - p. 374 26. 4 Thermal spreading resistance in ballistic-diffusive regime - p. 397 27. 5 Self-heating effect - p. 415 28. 6 Conclusion - p. 425 29. Acknowledgments - p. 427 30. References - p. 427 31. Chapter Nine: Factors influencing heat transfer mechanism in nucleate pool boiling: A comprehensive review with state of the art and future prospects - p. 435 32. Abstract - p. 435 33. Nomenclature - p. 436 34. 1 Introduction - p. 442 35. 2 State of the art literature - p. 441 36. 3 Potential future prospects - p. 572 37. 4 Concluding remarks - p. 573 38. References - p. 575
