The Newman Lectures on Transport Phenomena

John Newman is Charles W. Tobias Chair of Electrochemistry (emeritus), Department of Chemical Engineering, UC Berkeley. At the same time, he was also a senior scientist and principal investigator at the Energy Technologies Area (ETA), Lawrence Berkeley National Laboratory (LBNL), Berkeley, California, USA. He received his BS degree from Northwestern University, Illinois, USA, and MS degree and PhD from UC Berkeley. He has been a recipient of the Onsager Professorship, 2002, of the Norwegian University of Science and Technology, Trondheim, Norway. His current research focuses on the analysis and design of electrochemical systems, with batteries, fuel cells, turbulence, and renewable energy receiving the most attention. He is the author of over 300 technical publications, numerous plenary and invited lectures, and the book Electrochemical Systems. Vincent Battaglia is a research scientist at LBNL, where he heads the Energy Storage Group of the ETA. He received his BS degree in chemical engineering from Johns Hopkins University, Baltimore, USA, and his MS degree and PhD in chemical engineering from UC Berkeley with an emphasis in electrochemical engineering. He joined Argonne National Laboratory, Washington, DC, as a postdoctoral fellow and was later appointed as a chemical engineer, then technical coordinator for DOC PNGV office and coordinator of DOE VTO Battery Research there. He specializes in battery design, fabrication, and testing, and his current research focuses on the science of electrode formulation as it relates to manufacturing and performance. He has received the Pacesetter Award from Argonne National Laboratory, the DOE R&D Award, the 2013 R&D 100 Award, and the FMC Corporation external research collaboration award.

1. Conservation Laws and Transport Laws. 2. Fluid Mechanics. 3. Microscopic Interpretation of the Momentum Flux. 4. Heat Transfer in a Pure Fluid. 5. Concentrations and Velocities in Mixtures. 6. Material Balances and Diffusion. 7. Relaxation Time for Diffusion. 8. Multicomponent Diffusion. 9. Heat Transfer in Mixtures. 10. Transport Properties. 11. Entropy Production. 12. Coupled Transport Processes. 13. Introduction. 14. Simple Flow Solutions. 15. Stokes Flow Past a Sphere. 16. Flow to a Rotating Disk. 17. Singular-Perturbation Expansions. 18. Creeping Flow Past a Sphere. 19. Mass Transfer to a Sphere in Stokes Flow. 20. Mass Transfer to a Rotating Disk. 21. Boundary-Layer Treatment of a Flat Plate. 22. Boundary-Layer Equations of Fluid Mechanics. 23. Curved Surfaces and Blasius Series. 24. The Diffusion Boundary Layer. 25. Blasius Series for Mass Transfer. 26. Graetz–Nusselt–Lévêque Problem. 27. Natural Convection. 28. High Rates of Mass Transfer. 29. Heterogeneous Reaction at a Flat Plate. 30. Mass Transfer to the Rear of a Sphere in Stokes Flow. 31. Spin Coating. 32. Stefan–Maxwell Mass Transport. 33. Turbulent Flow and Hydrodynamic Stability. 34. Time Averages and Turbulent Transport. 35. Universal Velocity Profile and Eddy Viscosity. 36. Turbulent Flow in a Pipe. 37. Integral Momentum Method for Boundary Layers. 38. Use of Universal Eddy Viscosity for Turbulent Boundary Layers. 39. Mass Transfer in Turbulent Flow. 40. Mass Transfer in Turbulent Pipe Flow. 41. Mass Transfer in Turbulent Boundary Layers. 42. New Perspective in Turbulence.