New York: CRC Press, 2014. — 567 p. — ISBN: 978-1466582019.
In the real world, most signals are analog, spanning continuously varying values. Circuits that interface with the physical environment need to be able to process these signals. Principles of Analog Electronics introduces the fascinating world of analog electronics, where fields, circuits, signals and systems, and semiconductors meet. Drawing on the author’s teaching experience, this richly illustrated, full-color textbook expertly blends theory with practical examples to give a clear understanding of how real electronic circuits work.
Build from the Essentials of Math, Physics, and Chemistry to Electronic Components, Circuits, and Applications.
Building a solid foundation, the book first explains the mathematics, physics, and chemistry that are essential for grasping the principles behind the operation of electronic devices. It then examines the theory of circuits through models and important theorems. The book describes and analyzes passive and active electronic devices, focusing on fundamental filters and common silicon-based components, including diodes, bipolar junction transistors, and metal–oxide–semiconductor field-effect transistors (MOSFETs). It also shows how semiconductor devices are used to design electronic circuits such as rectifiers, power suppliers, clamper and clipper circuits, and amplifiers. A chapter explores actual applications, from audio amplifiers and FM radios to battery chargers.
Delve Deeper into Analog Electronics through Curiosities, Key Personalities, and Practical Examples.
Each chapter includes helpful summaries with key points, jargon, and terms, as well as exercises to test your knowledge. Practical tables illustrate the coding schemes to help identify commercial passive and active components. Throughout, sidebars highlight "curiosities," interesting observations, and examples that make the subject more concrete. This textbook offers a truly comprehensive introduction to the fundamentals of analog electronics, including essential background concepts. Taking a fresh approach, it connects electronics to its importance in daily life, from music to medicine and more.
Author.
Mathematical Tools.
Multiples and Submultiples.
Periodic Waveforms.
Fundamental Trigonometric Formulae.
Complex numbers.
Phase Vector (or Phasor).
Laplace Transform.
Taylor Series.
Fourier Series and Integral.
Modulation.
Key Points, Jargon, and Terms.
Exercises.
Physical and Electrical Background.
Force, Work, Energy, Power.
Heat and Temperature.
Electric Charge.
Coulomb Force.
Electric Field.
Electric Induction.
Electric Current.
Electric Voltage.
Electron Mobility.
Electric Energy and Power.
Conventional Notations.
Magnetic Field.
Magnetic Induction.
Undulatory Phenomena.
Key Points, Jargon, and Terms.
Exercises.
Nature of Matter.
Atomic Model.
Lattice.
Wave-Particle Duality.
Electromagnetic Radiation.
Energy Band Theory.
Conductors.
Insulators.
Semiconductors.
Electrical Resistance and Joule Heating.
Temperature Coefficient.
Key Points, Jargon, and Terms.
Two-Terminal Components.
Definitions.
Conventional notations.
Topology of Interconnections.
Resistors.
Electrical Sources.
Capacitors.
Inductors.
Capacitor-Inductor Duality.
Complex Power.
Summary of Constitutive Relations.
Key Points, Jargon, and Terms.
Exercises.
Two-Port networks.
Definitions.
Transformers.
Dependent Sources.
Models of Two-Port networks.
Interconnections of Two-Port networks.
Key Points, Jargon, and Terms.
Exercises.
Circuit Theorems.
Definitions.
Kirchhoff's Laws.
Thevenin's Theorem.
Norton's Theorem.
Superposition Theorem.
Miller's Theorem.
Miller's Dual Theorem.
Substitution Theorem.
Impedance Matching and Bridging.
Who Decides What.
Key Points, Jargon, and Terms.
Exercises.
Frequency Domain.
Resistance, Reactance, Impedance.
Electronic Filters.
Sources of Phase Shift.
RC Integrator.
Key Points, Jargon, and Terms.
Exercises.
Semiconductor Components.
Doping of Semiconductors.
Charge Carriers.
Current in Semiconductors.
P-M Junction.
Diode.
BJT.
MOSFET.
BJT versus MOSFET.
numbering and Coding Schemes.
Key Points, Jargon, and Terms.
Exercises.
Diode Circuits.
Rectifiers.
DC Power Supply.
Voltage Doubler Circuits.
Clamper Circuits.
Clipper Circuits.
Key Points, Jargon, and Terms.
Exercises.
Amplifiers.
Definitions and Classifications.
Key Parameters.
Types of Amplifier.
Loading Effect and Driving Parameters.
Key Points, Jargon, and Terms.
Exercises.
Amplifiers: Basic BJT Configurations.
Conventional notations.
Step-by-Step First Design.
BJT as a Signal Amplifier.
C.E. Configuration.
Swamped С.Е.
C.C. Configuration (Emitter Follower).
С.Б. Configuration.
С.Е., С.В., C.C. Comparisons.
БJT Simplified Hybrid Model.
Bias Stability.
Key Points, Jargon, and Terms.
Exercises.
Amplifiers: Basic MOSFET Configurations.
MOSFET as a Signal Amplifier.
C.S. Configuration.
C.D. Configuration (Source Follower).
C.Q. Configuration.
Comparisons among C.S., C.D., C.G.
Bias Stability.
MOSFET as a Switch.
Key Points, Jargon, and Terms.
Exercises.
Amplifiers: Variants.
Increased Input Resistance.
Transformer-Coupled Load.
Cascode Amplifier.
Differential Amplifier.
Key Points, Jargon, and Terms.
Amplifiers: Cascading Stages.
Coupling.
DC Analysis.
AC Analysis.
Double-Stage C.E.-C.E.
Double-Stage C.E.-C.C.
Double-Stage C.C.-C.E.
Double-Stage C.S.-C.E.
Bandwidth.
Key Points, Jargon, and Terms.
Exercises.
Some Applications.
Audio Amplifier.
FM Radio.
Battery Charger.
Early Heart Pacemaker.
Other Transistor Applications.