Every question about how a computer behaves ends at a transistor.
How fast a processor can run. Why it burns power doing nothing. Why one node delivered a breakthrough and the next barely moved. All of it comes down to the physics of a device a few tens of nanometers wide — and most engineers were never taught it properly.
Introductory courses stop at the long-channel current equation, a model that hasn't described a real transistor in decades. The research literature starts three levels above that. This handbook occupies the gap where working engineers actually spend their careers.
Inside, you will find:
- Every important result derived, not asserted — with the assumptions stated up front and the breaking point identified at the end
- Worked examples that carry units through every step and reach answers you can check
- The full arc from carrier statistics to the MOS capacitor, short-channel effects, scaling theory, high-field transport, gate stacks, CMOS integration, FinFET and nanosheet architectures, memory, and reliability
- A glossary, a complete equation reference, and material property tables you will return to for years
Written for engineers, graduate students, and anyone who would rather understand a device than memorize rules that expire with the next generation.
Stop guessing why your devices behave the way they do. Scroll up, click Buy Now, and start reading today.