Semiconductor Physics and Devices brings together the fundamental physics, semiconductor material physics, and semiconductor device physics required to understand semiconductor device characteristics, operation, and limitations. It covers the three basic types of transistors (bipolar, JFET, and MOSFET) and includes discussions about processing techniques such as diffusion and ion implantation. The book features important learning tools such as chapter preview sections, chapter summary and review sections, extensive examples, chapter glossaries, many problems, chapter reading lists, and an appendix with answers to selected problems.
As a physics student, I am taking this time, a few days before my final exam on Solid State Physics, to write a review on this textbook.
I am currently consulting with my friends on how to review such a book. As you can expect, we are crying, helpless, and eating our cheap instant noodles - the only meal we know how to make.
The lecture slides from the class are lacklustre and this textbook is the only one recommended. The Holy Grail.
It has everything we need. This is our last glimmer of hope for our degrees. This is our devine saviour.
Semiconductor Physics and Devices: Basic Principles by Donald A. Neamen. I have the 4th edition of this textbook. I have read several books on semiconductors, such as Sze and Pierret and in my opinion Neamen is the best. The examples and calculation problems are superb. If you can solve several problems, you will understand the material better. Also, you can find the full instructor's solution manual online if you struggle or just want to take a quick glance for hints.
Bandgap is a very big topic and I knew little about it before reading this book. Haha.
Perfect for self study if you don't know much about semiconductor physics. Content relatively easy and easy to find exercise solution online. I think it's clearer than Sze's book.
I have been using this book for literature review on crystalline structures (materials engineering) to Quantum theory (Schroedinger's wave equation, uncertainty principle, etc); to p-n junctions and to what we have today in digital and analog electronics principles and applications. A book of detailed explanations and illustrations coupled with extensive derivation of equations.
This book makes a great resource tool for those who need the fundamental knowledge of quantum mechanics and energy diagrams for semiconductor devices. I haven't read the whole book, and don't intent to, but from what I've read so far, I've felt that everything was clear and flowed well.