7. Toward a 1D Device Model, Part I: Device Fundamentals
MIT 2.627 Fundamentals of Photovoltaics, Fall 2011 View the complete course: http://ocw.mit.edu/2-627F11 Instructor: Tonio Buonassisi This lecture on advanced semiconductor physics introduces quantum efficiency, and explores why real PV cells deviate from an ideal diode model. Also: series resistance for a solar cell; Fermi energy as a function of dopant, illumination and temperature. License: Creative Commons BY-NC-SA More information at http://ocw.mit.edu/terms More courses at http://ocw.mit.edu
▶︎
9. Charge Extraction
▶︎
10. Wafer Silicon-Based Solar Cells, Part I
▶︎
8. Toward a 1D Device Model, Part II: Material Fundamentals
▶︎
14. PV Efficiency: Measurement and Theoretical Limits
▶︎
Billionaire's WARNING: I'm SELLING. The Crash Is Already Here!
▶︎
Physics Ran an Experiment on TIME — The Results Don’t Add Up
▶︎
1. Introduction (2.627 Fundamentals of Photovoltaics)
▶︎
Quantum physics and the gateway to a new reality - with Vlatko Vedral
▶︎
12. Thin Films: Material Choices & Manufacturing, Part I
▶︎
Yann LeCun: World Models: Enabling the next AI revolution
▶︎
AI Is Creating A Rare Opportunity For Investors. How Jim Roppel Is Playing It. | Investing With IBD
▶︎
AlphaFold - The Most Useful Thing AI Has Ever Done
▶︎
The Cost of Sunshine
▶︎
Semiconductors explained in 16 mins | Chris Miller
▶︎
I Investigated The World's Skinniest vs Fattest City
▶︎
5. Charge Separation, Part I: Diode
▶︎
MIT 6.S191: Convolutional Neural Networks
▶︎
16. Solar Cell Characterization
▶︎
The mind-bending reality of quantum mechanics - with Jim Al Khalili
▶︎