Advances in Heat Transfer, Volume 51, provides in-depth review articles from a broader scope than in traditional journals or texts, with this comprehensive release covering chapters on Micro and nanoparticle transport phenomena in confined flows, A review of heat transfer in the transitional flow regime, and much more.
1. 1. Introduction - p. 1 2. 2. Effect of inlet configuration and heating on plain tube friction factor - p. 1 3. 3. Proposed correlations for laminar and transition friction factors - p. 1 4. 4. Effect of inlet configuration on plain tube heat transfer - p. 1 5. 5. Proposed correlations for laminar, transition, and turbulent heat transfer - p. 1 6. 6. Flow regime map - p. 1 7. 7. Simultaneous heat transfer and friction factor analysis - p. 1 8. 8. Transitional flow heat transfer works of Meyer and co-workers - p. 1 9. 9. Transitional flow heat transfer works of Abraham and co-workers - p. 1 10. 10. Transitional flow heat transfer works of Gnielinski - p. 1 11. 11. Transitional flow heat transfer work of Taler - p. 1 12. 12. Application of Ghajar and co-workers recommended friction factor and heat transfer correlations - p. 1 13. 13. Application of Meyer and co-workers transitional flow heat transfer correlations - p. 1 14. 14. Application of Abraham and co-workers and Gnielinski recommended friction factor and heat transfer correlations - p. 1 15. 15. Concluding remarks - p. 1 16. Chapter Two. Nanoparticle transport phenomena in confined flows - p. 55 17. 1. Introduction - p. 55 18. 2. Foundations - p. 55 19. 3. Computational methods and implementation - p. 55 20. 4. Illustrative examples of nanofluid studies and select applications - p. 55 21. 5. Conclusions - p. 55 22. Chapter Three. A review of the recent developments in laminar, transitional, quasi-turbulent and turbulent forced and mixed convective flow through horizontal tubes - p. 131 23. 1. Introduction - p. 131 24. 2. Flow regime nomenclature - p. 131 25. 3. Laminar forced convection thermal entrance length - p. 131 26. 4. Local heat transfer in the laminar and transitional flow regimes - p. 131 27. 5. Heat transfer in the transitional flow regime - p. 131 28. 6. Pressure drop in the transitional flow regime - p. 131 29. 7. Relationship between pressure drop and heat transfer - p. 131 30. 8. Nusselt number correlations: laminar, transitional, quasi-turbulent and turbulent flow - p. 131 31. 9. Flow regime maps - p. 131 32. 10. Conclusions - p. 131 33. 11. Recommendations - p. 131 34. Chapter Four. The spectral line weighted-sum-of-gray-gases (SLW) model for prediction of radiative transfer in molecular gases - p. 207 35. 1. Introduction - p. 207 36. 2. Radiation transfer in gases - p. 207 37. 3. The origin of the SLW method - p. 207 38. 4. The SLW method in uniform media - p. 207 39. 5. The SLW method in non-uniform media - p. 207 40. 6. Application of the SLW model in practical scenarios - p. 207 41. 7. Conclusions - p. 207 42. Chapter Five. Thermoelectric generators: A case study in multi-scale thermal engineering design - p. 299 43. 1. Introduction - p. 299 44. 2. Analytical TEG models and impedance matching concepts - p. 299 45. 3. Finite element simulations of thermocouples with temperature-independent properties - p. 299 46. 4. Finite element simulations of thermocouples with temperature-dependent properties - p. 299 47. 5. Finite element simulations of common thermoelectric material structures - p. 299 48. 6. Implications for system design with nano-engineered thermoelectric and heat transfer materials - p. 299 49. 7. Thermoelectric system economics - p. 299 50. 8. Conclusions - p. 299 51. Authors - p. 299 52. Chapter Six. Summary of forced-convection fluid flow and heat transfer for square cylinders of different aspect ratios ranging from the cube to a two-dimensional cylinder - p. 351 53. 1. Introduction - p. 351 54. 2. Methods - p. 351 55. 3. The computational details - p. 351 56. 4. Two-dimensional hydrodynamic results - p. 351 57. 5. Two-dimensional heat transfer results - p. 351 58. 6. Three-dimensional results - p. 351 59. 7. Concluding remarks - p. 351
Advances in Heat Transfer, Volume 51, provides in-depth review articles from a broader scope than in traditional journals or texts, with this comprehensive release covering chapters on Micro and nanoparticle transport phenomena in confined flows, A review of heat transfer in the transitional flow regime, and much more.
1. 1. Introduction - p. 1 2. 2. Effect of inlet configuration and heating on plain tube friction factor - p. 1 3. 3. Proposed correlations for laminar and transition friction factors - p. 1 4. 4. Effect of inlet configuration on plain tube heat transfer - p. 1 5. 5. Proposed correlations for laminar, transition, and turbulent heat transfer - p. 1 6. 6. Flow regime map - p. 1 7. 7. Simultaneous heat transfer and friction factor analysis - p. 1 8. 8. Transitional flow heat transfer works of Meyer and co-workers - p. 1 9. 9. Transitional flow heat transfer works of Abraham and co-workers - p. 1 10. 10. Transitional flow heat transfer works of Gnielinski - p. 1 11. 11. Transitional flow heat transfer work of Taler - p. 1 12. 12. Application of Ghajar and co-workers recommended friction factor and heat transfer correlations - p. 1 13. 13. Application of Meyer and co-workers transitional flow heat transfer correlations - p. 1 14. 14. Application of Abraham and co-workers and Gnielinski recommended friction factor and heat transfer correlations - p. 1 15. 15. Concluding remarks - p. 1 16. Chapter Two. Nanoparticle transport phenomena in confined flows - p. 55 17. 1. Introduction - p. 55 18. 2. Foundations - p. 55 19. 3. Computational methods and implementation - p. 55 20. 4. Illustrative examples of nanofluid studies and select applications - p. 55 21. 5. Conclusions - p. 55 22. Chapter Three. A review of the recent developments in laminar, transitional, quasi-turbulent and turbulent forced and mixed convective flow through horizontal tubes - p. 131 23. 1. Introduction - p. 131 24. 2. Flow regime nomenclature - p. 131 25. 3. Laminar forced convection thermal entrance length - p. 131 26. 4. Local heat transfer in the laminar and transitional flow regimes - p. 131 27. 5. Heat transfer in the transitional flow regime - p. 131 28. 6. Pressure drop in the transitional flow regime - p. 131 29. 7. Relationship between pressure drop and heat transfer - p. 131 30. 8. Nusselt number correlations: laminar, transitional, quasi-turbulent and turbulent flow - p. 131 31. 9. Flow regime maps - p. 131 32. 10. Conclusions - p. 131 33. 11. Recommendations - p. 131 34. Chapter Four. The spectral line weighted-sum-of-gray-gases (SLW) model for prediction of radiative transfer in molecular gases - p. 207 35. 1. Introduction - p. 207 36. 2. Radiation transfer in gases - p. 207 37. 3. The origin of the SLW method - p. 207 38. 4. The SLW method in uniform media - p. 207 39. 5. The SLW method in non-uniform media - p. 207 40. 6. Application of the SLW model in practical scenarios - p. 207 41. 7. Conclusions - p. 207 42. Chapter Five. Thermoelectric generators: A case study in multi-scale thermal engineering design - p. 299 43. 1. Introduction - p. 299 44. 2. Analytical TEG models and impedance matching concepts - p. 299 45. 3. Finite element simulations of thermocouples with temperature-independent properties - p. 299 46. 4. Finite element simulations of thermocouples with temperature-dependent properties - p. 299 47. 5. Finite element simulations of common thermoelectric material structures - p. 299 48. 6. Implications for system design with nano-engineered thermoelectric and heat transfer materials - p. 299 49. 7. Thermoelectric system economics - p. 299 50. 8. Conclusions - p. 299 51. Authors - p. 299 52. Chapter Six. Summary of forced-convection fluid flow and heat transfer for square cylinders of different aspect ratios ranging from the cube to a two-dimensional cylinder - p. 351 53. 1. Introduction - p. 351 54. 2. Methods - p. 351 55. 3. The computational details - p. 351 56. 4. Two-dimensional hydrodynamic results - p. 351 57. 5. Two-dimensional heat transfer results - p. 351 58. 6. Three-dimensional results - p. 351 59. 7. Concluding remarks - p. 351
