Learn · Convective Heat Transfer: Fundamentals and Some Applications

Lecture 30 of 71Week 5

Lecture 30: Integral method : Energy equation - 2

Prof. Arunkumar Sridharan, Prof. Shankar Krishnan and Prof. S.V. Prabhu · IIT Bombay

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From
Convective Heat Transfer: Fundamentals and Some Applications, IIT Bombay (at NPTEL)
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CC BY-NC-SA, as NPTEL states it. Non-commercial use only.
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All the lectures

  1. Lecture 1: Introduction to Convection - 1 Video
  2. Lecture 2: Introduction to Convection - 2 Video
  3. Lecture 3: Introduction to Convection - 3 Video
  4. Lecture 4: Introduction to Convection - 4 Video
  5. Lecture 5: Introduction to Convection - 5 Video
  6. Lecture 6: Fluid Acceleration Video
  7. Lecture 7: Reynolds transport theorem Video
  8. Lecture 8: General motion of fluid Video
  9. Lecture 9: Conservation of Mass and Momentum Video
  10. Lecture 10: Conservation of Momentum Video
  11. Lecture 11: Conservation of Energy - 01 Video
  12. Lecture 12: Conservation of Energy - 02 Video
  13. Lecture 13: Dimensional Similarity Video
  14. Lecture 14: Scale Analysis - 01 Video
  15. Lecture 15: Scale Analysis - 02 Video
  16. Lecture 16: Scale Analysis - 03 and Reynolds Analogy Video
  17. Lecture 17: Relationship between Stress and Strain rate Video
  18. Lecture 18: Introduction to Similarity method Video
  19. Lecture 19: Similarity method : Momentum equation - 1 Video
  20. Lecture 20: Similarity method : Momentum equation - 2 Video
  21. Lecture 21: Similarity method : Blasius solution Video
  22. Lecture 22: Similarity method : Energy equation - 1 Video
  23. Lecture 23: Similarity method : Energy equation - 2 Video
  24. Lecture 24: Similarity method : Energy equation - 3 Video
  25. Lecture 25: Definition of various thicknesses, Introduction to Integral method Video
  26. Lecture 26: Integral method - 1 Video
  27. Lecture 27: Integral method - 2 Video
  28. Lecture 28: Integral method - 3 Video
  29. Lecture 29: Integral method : Energy equation - 1 Video
  30. Lecture 30: Integral method : Energy equation - 2 Video
  31. Lecture 31: Introduction to Turbulence Video
  32. Lecture 32: Reynolds averaging of Governing equations and Universal Velocity Profile Video
  33. Lecture 33: Reynolds averaging of Energy equation, Concept of Eddy Diffusivity of Momentum and Eddy Diffusivity of Heat Video
  34. Lecture 34: Boundary layer equation, Two Layer Assumptions, Prandtl's Mixing Length Hypothesis Video
  35. Lecture 35: Universal Velocity Distribution, Friction Factor for Turbulent Flow in Hydraulically Smooth pipe Video
  36. Lecture 36: Friction Factor for Turbulent Flow in a Hydraulically Rough pipe Video
  37. Lecture 37: Emperical Power Law Velocity Distribution for Turbulent Flow Video
  38. Lecture 38: Internal Flows : Concept of Average Velocity and Bulk Mean Temperature Video
  39. Lecture 39: Thermal Entrance Length : Boundary layer growth for Pr > 1, Pr ~ 1 and Pr < 1 cases, Concept of Thermally fully developed Video
  40. Lecture 40: Analysis of Internal Flows for Constant Heat Flux Boundary Condition Video
  41. Lecture 41: Internal Flow : Constant Wall Temperature case Video
  42. Lecture 42: Velocity Distribution for Laminar flow in Circular pipe Video
  43. Lecture 43: Nusselt number for Laminar Flow in a Circular pipe with Constant Wall Heat Flux, Nusselt number for other cases Video
  44. Lecture 44: Natural Convection : Introduction, Scaling Analysis, Derivation of Governing equation Video
  45. Lecture 45: Natural Convection : Scale Analysis for Pr > 1 Video
  46. Lecture 46: Natural Convection : Scale Analysis for Pr < 1 Video
  47. Lecture 47: Dimensional Similarity and criterion for Forced and Natural Convection correlations for various cases Video
  48. Lecture 48: Vertical Channel flow with Plates maintained at Constant Wall Temperature Video
  49. Lecture 49: Optimal Cooling of a stack of Vertical Heat generating plates Video
  50. Lecture 50: Effect of Viscous Dissipation on Nusselt number - 1 Video
  51. Lecture 51: Effect of Viscous Dissipation on Nusselt number - 2 Video
  52. Lecture 52: Boiling Heat transfer : Introduction and Classification Video
  53. Lecture 53: Pool Boiling curve - 1 Video
  54. Lecture 54: Pool Boiling curve - 2 Video
  55. Lecture 55: Pool Boiling curve - 3 : Introduction to Critical Heat Flux Video
  56. Lecture 56: Critical Heat flux (Continuation) , Film Boiling, Basic analysis of Flow Boiling Video
  57. Lecture 57: Condensation - 1 Video
  58. Lecture 58: Condensation - 2 Video
  59. Lecture 59: Introduction to Electronics cooling Video
  60. Lecture 60: Pool Boiling curve - 3 : Introduction to Electronics cooling - Resistance network Video
  61. Lecture 61: Problem Solving - Part 1 Video
  62. Lecture 62: Problem Solving - Part 2 Video
  63. Lecture 63: Problem Solving - Part 3 Video
  64. Lecture 64: Unheated starting length (Integral method) & Duhamel's theorem Video
  65. Lecture 65: Arbitrarily varying Boundary temperature - Duhamel's theorem Video
  66. Lecture 66: Heat transfer coefficient - IcePAK Analysis Video
  67. Lecture 67: Heat Sinks - Part 1 Video
  68. Lecture 68: Heat exchanger theory - An approach to modeling heat sinks Video
  69. Lecture 69: Forced convection cooling Video
  70. Lecture 70: Honeycomb & Foam heat sink modeling - Approximation Video
  71. Lecture 71: Foam heat sink modeling - Approximation (Continuation) Video