SEMICONDUCTOR DEVICES:
An Introduction
Jasprit Singh
Cover art and layout by Teresa Singh
McGraw-Hill, Inc. (1994)
ISBN: 0-07-057625-4

Semiconductor Devices: An Introduction present a balanced approach to the physics of electrons in semiconductors and how this physics is used to produce devices. The basis of all electronic devices---bandstructure, density of states, Fermi statistics, doping concepts, transport and optical issues---are first explored with the focus on providing the reader with a physical insight into these important phenomena.

The basic semiconductor devices are explored at two levels: (1) a mathematically rigorous but simple model for each device is developed and then; (2) the motivations of modern devices which are more complex and provided. By discussing silicon, gallium arsenide and other semiconductor based devices, the text provides a state-of-the-art discussion of modern electronic devices. Most subsections end with a solved example so that the reader develops a feel of real numbers and the importance of design. The text also contains numerous end-of-chapter problems, summary tables, and a feature entitled, "A Bit of History," which provides historical perspectives of topics covered in the chapter.



TABLE OF CONTENTS

  1. QUANTUM MECHANICS AND STATISTICAL PHYSICS OF ELECTRONS

  2. ELECTRONS IN CRYSTALS: SEMICONDUCTOR BANDSTRUCTURE

  3. DOPING OF SEMICONDUCTORS

  4. TRANSPORT AND OPTICAL PROPERTIES IN SEMICONDUCTORS

  5. JUNCTIONS IN SEMICONDUCTORS: P-N DIODES

  6. SEMICONDUCTOR JUNCTIONS WITH METALS AND INSULATORS

  7. BIPOLAR JUNCTION TRANSISTORS

  8. FIELD EFFECT TRANSISTORS: JFET, MESFET, AND MODFET

  9. FIELD EFFECT TRANSISTORS: MOSFET

  10. OPTOELECTRONIC DEVICES: PHOTONS TO ELECTRONS

  11. OPTOELECTRONIC DEVICES: LIGHT EMISSION

  12. OPTICAL COMMUNICATION SYSTEMS: DEVICE NEEDS


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