1. Introduction to semiconductors, doping, generation/recombination, TE carrier concentrations, and carrier dynamics.
2. Excess populations, minimum carrier lifetime, photoconductivity, and non-uniform concentrations and diffusion.
3. The five basic equations, device structures in TE, carriers, electrostatic potential, and Poisson's equation (PE).
4. P-n junctions in thermal equilibrium and under reverse bias, the depletion approximation (DA), and comparison to PE solution.
5. Review of reverse biased junctions, forward bias, and minority carrier injection into quasineutral regions.
6. Forward biased p-n junctions, carrier injection, i-v characteristics, and engineering carrier injection.
7. Bipolar junction transistors (BJTs): two coupled diodes, terminal characteristics, and regions of operation.
8. Solar cells and LEDs (light emitting diodes).
9. MOS capacitors: DA applied to two-terminal MOS capacitor accumulation, depletion, and inversion; VFB, VT, QA, and QN.
10. The three-terminal MOS capacitor, MOSFETs, gradual channel approximation (GCA), and ignoring subthreshold carriers.
11. Complete GC/DA model for iDS, saturation, channel length modulation, and output characteristics; regions of operation.
12. Subthreshold operation of MOSFETs, model development, comparison to full numerical solution, and comparison with BJTs.
13. Linear equivalent circuits for MOSFETs and BJTs at low and high frequency; transconductance of subthreshold MOSFETs.
14. Logic inverter basics, introduction to CMOS: transfer characteristics, noise margins, optimal device sizing.
15. CMOS analysis, continued: switching delays, power dissipation, speed/power trade-offs.
16. CMOS analysis, continued: subthreshold leakage, scaling rules, and future trends.
17. Linear amplifier basics: performance metrics, current source biasing, current mirrors, mid-band range, two-port representation.
18. Single-transistor building block stages: common-source, common-gate, and common-drain (follower) stages; characteristics and features.
19. Differential amplifiers: large signal transfer characteristics; small signal analysis using common- and difference-mode inputs.
20. Multi-stage amplifiers I: cascading diff stages; current source biasing; output stages.
21. Multi-stage amplifiers II: active loads, biasing for maximum gain, input and output swings.
22. Multi-stage amplifiers III: examples, stage selection, specialty stages, looking at a commercial op-amp schematic. Begin frequency response.
23. Frequency response of CS amplifiers, the Miller effect, intrinsic frequency limitations of MOSFETs, biasing to maximize speed, power trade-off.
24. OCTC method for estimating frequency response, subthreshold amplifiers for ultra-lower power electronics, frequency performance.
25. MOS imagers,

And then start: https://emdp.ustc.edu.cn/_upload/article/files/fb/6c/a0bfd9044ce69fc42c0666266d77/04556719-aafc-43f5-8c18-f08f89a16cb3.pdf