SOL 102 — Materials Science & Chemistry for Solar Technology
What this course is. A compact materials and process-chemistry foundation for someone starting from zero: atoms and bonding, crystal structure, defects and impurities, thermodynamics and phase diagrams, diffusion, the chemistry that turns sand into silicon, thin-film growth, and the glass, polymers and metals in a module — plus an introduction to the hazardous chemicals and gases used in factories. It builds the vocabulary and intuition for crystal growth (SOL 301), cell fabrication (SOL 302/303) and modules (SOL 304).
Prerequisites. None (SOL 101 recommended; it can run in parallel).
Learning outcomes
- Describe bonding and crystal structure of Si, GaAs, CdTe, CIGS and halide perovskites.
- Explain what point defects, dislocations, grain boundaries and impurities do to electronic properties.
- Apply segregation and diffusion concepts to purification and doping.
- Explain thin-film nucleation and the main deposition methods.
- Classify the roles of glass, polymers and metals in a module.
- Read a simple phase diagram and a reaction scheme for silicon refining.
- Explain the hazard classes and control hierarchy for process chemicals and gases.
Units
Hands-on labs
- Lab 102-A: Grow single crystals — nucleation, grains, defects
- Lab 102-B: Hold the material — silicon wafers and a crystal model
- Lab 102-C: Diffusion analogue — dye in gelatin
- Lab 102-D: Segregation analogue — impurity rejection during freezing
Course lab budget: roughly \(80–\)250 (estimate).
Core references
Callister & Rethwisch, Materials Science and Engineering: An Introduction; Kittel, Introduction to Solid State Physics; Sze & Ng, Physics of Semiconductor Devices; Plummer, Deal & Griffin, Silicon VLSI Technology; PVEducation; Green, Silicon Solar Cells. Full list on the Sources page.