Uses the Blasius solutions to develop an expression for the y-component of velocity at the edge of a boundary layer.

1. Heat Transfer Basics
2. Introduction to Heat Transfer - Potato Example
3. Heat Transfer Parameters and Units
4. Heat Flux: Temperature Distribution
5. Conduction Equation Derivation
6. Heat Equation Derivation
7. Heat Equation Derivation: Cylindrical Coordinates
8. Boundary Conditions
9. Thermal Circuits Introduction
10. Thermal Circuits: Temperatures in a Composite Wall
11. Composite Wall: Maximum Temperature
12. Temperature Distribution for a Cylinder
13. Rate of Heat Generation
14. Uniform Heat Generation: Maximum Temperature
15. Heat Loss from a Cylindrical Pin Fin
16. Heat Loss from a Rectangular Fin
17. Maximum Temperature for a Rectangular Fin
18. Methods for Solving Transient Conduction Problems
19. Lumped Capacitance Introduction
20. Lumped Capacitance: Temperature of a Sphere
21. Transient Conduction in a Sphere (Part I)
22. Transient Conduction in a Sphere (Part II)
23. Transient Conduction: One-Term Approximation
24. Modeling Heat Transfer along a Semi-Infinite Medium
25. Solving Convection Problems
26. Flow over a Flat Plate
27. Laminar Flow: Flat Plate Surface Temperature
28. Solar Cell (Part I): Heat Transfer Coefficient
29. Solar Cell (Part II): Surface Temperature
30. Heat Transfer Rate: Tube Bank
31. Rod Center-line Temperature
32. Introduction to Blasius Solutions
33. Blasius Solution for Boundary Layer Thickness
34. Shear Stress at a Wall: Blasius Solutions
35. Blasius Solution for the y-Component of Velocity
36. y-Component of Velocity at a Boundary Layer
37. Outlet Mean Temperature
38. Heat Transfer Rate: Cross-Section Orientation
39. Nucleate Boiling Example
40. Counter-Flow Heat Exchanger: Outlet Temperature (Bio)
41. Heat Exchanger: Mass Flow Rate
42. Sizing a Heat Exchanger: Parallel Flow
43. Sizing a Heat Exchanger: Counter-Flow
44. Excel Solver Introduction
45. Laminar, Fully-Developed Internal Flow Through a Pipe
46. NTU Effectiveness Method
47. NTU Effectiveness: Counter-Flow Heat Exchanger
48. Log Mean Temperature Difference
49. How to Calculate Heat Duty
50. Estimates for Heat Transfer Coefficients
51. Local and Average Heat Transfer Coefficients
52. Internal Flow with Constant Surface Temperature
53. Contact Resistance
54. Contact Resistance Example
55. Film Pool Boiling
56. Nucleate Pool Boiling
57. Nucleate Pool Boiling: Unit Conversion
58. Overall Heat Transfer Coefficient Rectangular Coordinates
59. View Factors
60. Surface Temperature for a Cylindrical Pipe
61. Internal Flow with Constant Surface Heat Flux
62. Net Radiative Heat Transfer Rate from a Surface
63. Radiation Exchange Between Surfaces
64. Temperature of a Radiation Shield
65. Heat Generation in a Pipe
66. Properties of Radiative Heat Transfer

LearnChemE features faculty prepared engineering education resources for students and instructors produced by the Department of Chemical and Biological Engineering at the University of Colorado Boulder and funded by the National Science Foundation, Shell, and the Engineering Excellence Fund. In this course, LearnChemE covers topics in heat transfer, such as conduction, convection, and radiation.