Solid State Pulse Circuits 4th Ed.
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ISBN 0-9683705-3-5, 594 pages |
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Description:
The first chapters explain the characteristics of pulse waveforms and RC circuits that must be understood before the study of pulse circuitry can commence.
The operation of diodes, BJTs, FETs, and op-amps in switching circuits is covered next. This leads to the design and analysis of inverters, Schmitt trigger circuits, multivibrators, IC timer circuits, ramp generators, and function generators. Logic gates, logic circuits, and IC logic families are also studied.
After individual circuits and gates are studied, they are used as building blocks to explain digital counting, digital frequency meters, ADCs and DACs, pulse modulation, time division multiplexing.
Many design and analysis examples are offered throughout the text. The circuit design approach is a simple step-by-step procedure. Device data sheets in the appendices are referred to, and standard-value components are selected.
Features:
- Objectives list at the beginning of each chapter.
- Practice problems at the end of each section, with answers at the chapter end.
- End-of-chapter review questions and problems.
- Laboratory exercises using circuits designed in the text are offered at chapter ends.
- Answers for odd-numbered problems at the back of the book.
- Device data sheets and component standard values in the appendices.
Contents:
PREFACE
Chapter 1 PULSE FUNDAMENTALS
Objectives
Introduction
1-1 Types of Waveforms
1-2 Characteristics of Pulse Waveforms
1-3 Harmonic Content of Waveforms
1-4 Waveform Distortion
Review Questions
Problems
Laboratory Exercise 1-1
Chapter 2 RESISTIVE CAPACITIVE (RC) CIRCUITS
Objectives
Introduction
2-1 RC Circuit Operation
2-2 Normalized Charging Graph
2-3 RC Circuit Equations
2-4 RC Circuit Response to Square Waves
2-5 Integrating Circuits
2-6 Differentiating Circuits
2-7 Source and Load Effects and Capacitor Polarity
Review Questions
Problems
Laboratory Exercise 2-1
Chapter 3 DIODE SWITCHING
Objectives
Introduction
3-1 The Diode as a Switch
3-2 The Zener Diode
3-3 Diode Series Clipper Circuits
3-4 Diode Shunt Clipper Circuits
3-5 Diode Clamper Circuits
3-6 Voltage-Multiplying Circuits
Review Questions
Problems
Laboratory Exercise 3-1
Chapter 4 TRANSISTOR SWITCHING
Objectives
Introduction
4-1 Ideal Transistor Switch
4-2 Practical Transistor Switch
4-3 Transistor Switching Times
4-4 Improving the Switching Times
4-5 Direct-Coupled Inverter
4-6 Capacitor-Coupled Inverter Circuits
4-7 Junction FET Switching Circuits
4-8 MOSFET Switching Circuits
Review Questions
Problems
Laboratory Exercise 4-1
Laboratory Exercise 4-2
Chapter 5 IC OPERATIONAL AMPLIFIERS IN SWITCHING CIRCUITS
Objectives
Introduction
5-1 IC Operational Amplifiers
5-2 Op-Amps as Linear Amplifiers
5-3 Op-Amps in Switching Circuits
5-4 Op-Amp Inverters
5-5 Op-Amp Clipper Circuits
5-6 Op-Amp Differentiator
5-7 Miller Integrator Circuit
Review Questions
Problems
Laboratory Exercise 5-1
Laboratory Exercise 5-2
Laboratory Exercise 5-3
Chapter 6 SCHMITT TRIGGER CIRCUITS AND VOLTAGE COMPARATORS
Objectives
Introduction
6-1 Transistor Schmitt Trigger Circuit
6-2 Designing for the UTP
6-3 Designing for the UTP and LTP
6-4 Speed-Up Capacitor
6-5 Output/Input Characteristics
6-6 Op-Amp Schmitt Trigger Circuits
6-7 IC Schmitt
6-8 IC Voltage Comparators
Review Questions
Problems
Laboratory Exercise 6-1
Laboratory Exercise 6-2
Chapter 7 MONOSTABLE AND ASTABLE MULTIVIBRATORS
Objectives
Introduction
7-1 Collector-Copled Monostable Multivibrator
7-2 Designing a Monostable Multivibrator
7-3 Triggering Monostable Multivibrators
7-4 Emitter-Coupled Monostable Multivibrators
7-5 Op-Amp Monostable Multivibrators
7-6 IC Monostable Multivibrators
7-7 Astable Multivibrators
7-8 Op-Amp Astable Multivibrators
7-9 Voltage Comparator as Monostable and Astable
Review Questions
Problems
Laboratory Exercise 7-1
Laboratory Exercise 7-2
Chapter 8 IC TIMER CIRCUITS
Objectives
Introduction
8-1 The 555 IC Timer
8-2 555 as a Monostable Multivibrator
8-3 Designing a 555 Monostable Circuit
8-4 Modifications to the Basic 555 Monostable Circuit
8-5 555 Astable Multivibrator
8-6 Modifications to the Basic 555 Astable Circuit
8-7 More 555 Timer Applications
8-8 CMOS Timer Circuit
Review Questions
Problems
Laboratory Exercise 8-1
Laboratory Exercise 8-2
Chapter 9 RAMP, PULSE, AND FUNCTION GENERATORS
Objectives
Introduction
9-1 RC Ramp Generator
9-2 Constant-Current Ramp Generators
9-3 UJT Relaxation Oscillators
9-4 Bootstrap Ramp Generators
9-5 Free-Running Ramp Generators
9-6 Miller Integrator Ramp Generators
9-7 Triangular Waveform Generators
9-8 Pulse Generator Circuit
9-9 Op-amp Function Generator
9-10 IC Function Generator
ReviewQuestions
Problems
Laboratory Exercise 9-1
Laboratory Exercise 9-2
Laboratory Exercise 9-3
Chapter 10 BASIC LOGIC GATES AND LOGIC FUNCTIONS
Objectives
Introduction
10-1 Diode AND Gate
10-2 Diode OR Gate
10-3 NOT, NAND, and NOR Gates
10-4 The AND Operation
10-5 The OR Operation
10-6 The NOT Operation
10-7 The NAND Operation
10-8 The NOR Operation
Review Questions
Problems
Laboratory Exercise 10-1
Chapter 11 LOGIC CIRCUITS
Objectives
Introduction
11-1 Basic logic Gate Combinations
11-2 Boolean Equations for Basic Gate Combinations
11-3 Analysis of Logic Circuits
11-4 Designing Logic Circuits
11-5 Simplifying Logic Circuit Designs
11-6 Exclusive OR and Exclusive NOR Gates
11-7 Gate Conversions: Universal Building Blocks
11-8 Positive Logic and Negative Logic
Review Questions
Problems
Laboratory Exercise 11-1
Laboratory Exercise 11-2
Laboratory Exercise 11-3
Chapter 12 INTEGRATED CIRCUIT LOGIC GATES
Objectives
Introduction
12-1 Logic Gate Performance Factors
12-2 DTL, HTL, and RTL
12-3 Standard TTL
12-4 Open-Collector TTL
12-5 Tri-State TTL (TSL)
12-6 Other TTL Types
12-7 Emitter-Coupled Logic (ECL)
12-8 P-MOS and N-MOS Logic Gates
12-9 CMOS Logic Gates
12-10 Integrated Injection Logic (I2L)
12-11 Comparison of Major IC Logic Types
12-12 Interfacing Different Logic Types
Review Questions
Problems
Laboratory Exercise 12-1
Laboratory Exercise 12-2
Laboratory Exercise 12-3
Chapter 13 BISTABLE MULTIVIBRATORS (FLIP-FLOPS)
Objectives
Introduction
13-1 Transistor Collector-Coupled Bistable
13-2 Emitter-Coupled Bistable
13-3 Bistable Triggering
13-4 The T Flip-Flop
13-5 The SC Flip-Flop
13-6 The Clocked SC Flip-Flop
13-7 The D Flip-Flop
13-8 The JK Flip-Flop
13-9 Master Slave Flip-Flops
Review Questions
Problems
Laboratory Exercise 13-1
Laboratory Exercise 13-2
Chapter 14 DIGITAL COUNTING AND MEASUREMENT
Objectives
Introduction
14-1 Flip-Flops in Cascade
14-2 Decade Counter
14-3 Integrated Circuit Counters
14-4 Digital Displays or Readouts
14-5 BCD-to-Decimal Conversion
14-6 Seven-Segment Decoder Driver
14-7 Scale-of-10000 Counter
14-8 Digital Frequency Meter
14-9 Digital Voltmeter
Review Questions
Problems
Laboratory Exercise 14-1
Laboratory Exercise 14-2
Laboratory Exercise 14-3
Chapter 15 SAMPLING, CONVERSION, MODULATION, AND MULTIPLEXING
Objectives
Introduction
15-1 Sampling Gates
15-2 Sample-and-Hold Circuit
15-3 Digital-to-Analog Conversion
15-4 Analog-to-Digital Conversion
15-5 Pulse Modulation
15-6 Time Division Multiplexing
15-7 Pulse Code Modulation and Demodulation
Review Questions
Problems
Laboratory Exercise 15-1
Laboratory Exercise 15-2
Laboratory Exercise 15-3
Appendices
Appendix 1 MANUFACTURERS' DATA SHEETS
Appendix 2 STANDARD RESISTOR AND CAPACITOR VALUES
Appendix 3 COLOR CODES
Appendix 4 UNIT CONVERSION FACTORS
Appendix 5 ANSWERS FOR ODD-NUMBERED PROBLEMS
INDEX
Supplementary Manuals:
Instructor’s Resource Manual
Transparency Masters
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