This graduate-level textbook offers a comprehensive treatment of the underlying physics behind semiconductor devices, with applications to specific modern solid state devices throughout. It has excellent illustrations, clear writing style and phenomenal breadth of coverage.

Physics of Semiconductors and Their Heterostructures (MCGRAW HILL SERIES IN ELECTRICAL AND COMPUTER ENGINEERING)

Science & Math

Singh, Jasprit

Physics

Mcgraw-Hill College

Semiconductor Devices: An Introduction presents 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 are 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 device 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.

Semiconductor Devices: An Introduction

Engineering & Transportation

Engineering

Semiconductor Optoelectronics: Physics and Technology (Electronics and Vlsi Circuits)

This text provides a broad understanding of the rapidly growing field of optoelectronics. An integrated approach is used, covering important topics in applied optics, physics of optical response, semiconductor optoelectronic devices (lasers, LED's detectors); terroelectric devices (modulators); liquid crystal devices for displays; optical communication systems; and device fabrication steps.

Optoelectronics: An Introduction to Materials and Devices (Electrical and Computer Engineering)

Aimed at graduate students in electrical engineering, this text provides a broad understanding of the rapidly growing field of optoelectronics. An integrated approach is used, covering topics in: applied optics; physics of optical response; and semiconductor optoelectronic devices.

Optoelectronics: An Introduction to Materials and Devices

McGraw-Hill Education (ISE Edi

This is the instructor's manual which accompanies a textbook offering comprehensive treatment of the underlying physics behind modern semiconductor devices, with applications to specific modern solid-state devices throughout. Modular in organization, it should be suitable for a range of courses in solid-state physics and devices in both physics and electrical engineering departments. Special features include: a step-by-step formulation of Monte Carlo Transport; discussion of excitonic effects in quantum wells; comprehensive coverage of heterostructures of solid-state devices; and historical introductions.

Physics of Semiconductors and Their Heterostructures

McGraw-Hill Inc.,US

Explore the relationship between quantum mechanics and information-age applications This volume takes an altogether unique approach to quantum mechanics. Providing an in-depth exposition of quantum mechanics fundamentals, it shows how these concepts are applied to most of today's information technologies, whether they are electronic devices or materials. No other text makes this critical, essential leap from theory to real-world applications. The book's lively discussion of the mathematics involved fits right in with contemporary multidisciplinary trends in education: Once the basic formulation has been derived in a given chapter, the connection to important technological problems is summarily described. A book for the information age, Quantum Mechanics: Fundamentals and Applications to Technology promises to become a standard in departments of electrical engineering, applied physics, and materials science, as well as physics. It is an excellent text for senior undergraduate and graduate students, and a helpful reference for practicing scientists, engineers, and chemists in the semiconductor and electronic industries.

Quantum Mechanics: Fundamentals and Applications to Technology

Wiley-Interscience

Linking physics fundamentals to modern technology-a highly applied primer for students and engineers Reminding us that modern inventions-new materials, information technologies, medical technological breakthroughs-are based on well-established fundamental principles of physics, Jasprit Singh integrates important topics from quantum mechanics, statistical thermodynamics, and materials science, as well as the special theory of relativity. He then goes a step farther and applies these fundamentals to the workings of electronic devices-an essential leap for anyone interested in developing new technologies. From semiconductors to nuclear magnetic resonance to superconducting materials to global positioning systems, Professor Singh draws on wide-ranging applications to demonstrate each concept under discussion. He downplays extended mathematical derivations in favor of results and their real-world design implication, supplementing the book with nearly 100 solved examples, 120 figures, and 200 end-of-chapter problems. Modern Physics for Engineers provides engineering and physics students with an accessible, unified introduction to the complex world underlying today's design-oriented curriculums. It is also an extremely useful resource for engineers and applied scientists wishing to take advantage of research opportunities in diverse fields.

Modern Physics for Engineers

Wiley-VCH

This introductory text designed for the first course in semiconductor physics presents a well-balanced coverage of semiconductor physics and device operation and shows how devices are optimized for applications. The text begins with an exploration of the basic physical processes upon which all semiconductor devices―diodes, transistor, light emitters, and detectors―are based. Topics such as bandstructure, effective masses, holes, doping, carrier transport and lifetimes are discussed. Next, the author focuses on the operation of the important semiconductor devices along with issues relating to the optimization of device performance. Issues such as how doping, device dimensions, and parasitic effects influence device operation are also included.
The book is appropriate for the following courses: Device Physics; Semiconductor Devices; Device Electronics; Physics of Semiconductor Devices; Integrated Circuit Devices; Device Electronics: Solid State Devices.

Semiconductor Devices: Basic Principles

wiley

Electronic and Optoelectronic Properties of Semiconductor Structures

Cambridge University Press

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