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دسته بندی: الکترونیک ویرایش: نویسندگان: Stephan J. G. Gift, Brent Maundy سری: ISBN (شابک) : 9783030793753, 9783030793746 ناشر: Springer International Publishing سال نشر: 2022 تعداد صفحات: 0 زبان: English فرمت فایل : EPUB (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 67 مگابایت
کلمات کلیدی مربوط به کتاب طراحی و کاربرد مدارهای الکترونیکی: الکترونیک، مهندسی، ترانزیستور، ماسفت، منابع تغذیه
در صورت تبدیل فایل کتاب Electronic Circuit Design and Application به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب طراحی و کاربرد مدارهای الکترونیکی نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
این کتاب درسی برای دروس اصلی در طراحی مدارهای الکترونیکی طراحی و کاربرد طیف گسترده ای از مدارهای الکترونیکی آنالوگ را به صورت جامع و واضح به دانش آموزان می آموزد. خوانندگان قادر به طراحی مدارها یا سیستم های کامل و کاربردی خواهند بود. نویسندگان ابتدا پایهای در تئوری و عملکرد دستگاههای الکترونیکی پایه، از جمله دیود، ترانزیستور پیوند دوقطبی، ترانزیستور اثر میدانی، تقویتکننده عملیاتی و تقویتکننده بازخورد جریان ارائه میکنند. سپس آنها دستورالعمل جامعی را در مورد طراحی مدارهای الکترونیکی واقعی و واقعی با سطوح مختلف پیچیدگی، از جمله تقویت کننده های قدرت، منابع تغذیه تنظیم شده، فیلترها، نوسان سازها و مولدهای شکل موج ارائه می دهند. مثالهای زیادی به خواننده کمک میکند تا به سرعت با پارامترهای طراحی کلیدی و روششناسی طراحی برای هر دسته از مدارها آشنا شود. هر فصل از مدارهای اساسی شروع می شود و آنها را گام به گام در طیف گسترده ای از کاربردهای مدارها و سیستم های واقعی توسعه می دهد. این کتاب درسی که برای دسترسی به دانشآموزان با پیشینههای مختلف نوشته شده است، طراحی مدارهای الکترونیکی آنالوگ واقعی را برای سیستمهای کلیدی ارائه میکند. شامل نمونه های کار شده از مدارهای عملکردی، در هر فصل، با تاکید بر کاربردهای واقعی. شامل تمرین های متعدد در پایان هر فصل. از شبیه سازی برای نشان دادن عملکرد مدارهای طراحی شده استفاده می کند. خوانندگان را قادر می سازد مدارهای الکترونیکی مهمی از جمله تقویت کننده ها، منابع تغذیه و نوسانگرها را طراحی کنند.
This textbook for core courses in Electronic Circuit Design teaches students the design and application of a broad range of analog electronic circuits in a comprehensive and clear manner. Readers will be enabled to design complete, functional circuits or systems. The authors first provide a foundation in the theory and operation of basic electronic devices, including the diode, bipolar junction transistor, field effect transistor, operational amplifier and current feedback amplifier. They then present comprehensive instruction on the design of working, realistic electronic circuits of varying levels of complexity, including power amplifiers, regulated power supplies, filters, oscillators and waveform generators. Many examples help the reader quickly become familiar with key design parameters and design methodology for each class of circuits. Each chapter starts from fundamental circuits and develops them step-by-step into a broad range of applications of real circuits and systems. Written to be accessible to students of varying backgrounds, this textbook presents the design of realistic, working analog electronic circuits for key systems; Includes worked examples of functioning circuits, throughout every chapter, with an emphasis on real applications; Includes numerous exercises at the end of each chapter; Uses simulations to demonstrate the functionality of the designed circuits; Enables readers to design important electronic circuits including amplifiers, power supplies and oscillators.
Preface to the First Edition ____Text Philosophy ____Text Features ____Text Overview ____Closing Remarks Preface to the Second Edition Acknowledgments Contents About the Authors Chapter 1: Semiconductor Diode ____1.1 Theory of Semiconductors ________1.1.1 Energy Levels ________1.1.2 Intrinsic (Pure) Semiconductor ________1.1.3 Extrinsic (Impure) Semiconductor ____________1.1.3.1 n-Type Material ____________1.1.3.2 p-Type Material ____1.2 Current Flow in Semiconductor Diodes ________1.2.1 Zero Bias ________1.2.2 Reverse-Biased Diode ________1.2.3 Forward-Biased Diode ____1.3 General Characteristic of a Diode ________1.3.1 Breakdown Region ________1.3.2 Diode Specifications ____1.4 Diode Types ________1.4.1 Zener Diodes ________1.4.2 Signal Diodes ________1.4.3 Power Diodes ________1.4.4 Varactor Diodes ________1.4.5 Light-Emitting Diodes ________1.4.6 Photodiodes ________1.4.7 PIN Diodes ________1.4.8 Schottky Diodes ____1.5 Diode Circuits ________1.5.1 DC Circuits ________1.5.2 Clippers ________1.5.3 Clampers ________1.5.4 Half-Wave Rectifier ________1.5.5 Full-Wave Rectifier ________1.5.6 Bridge Rectifier ________1.5.7 Zener Diode Regulators ____________1.5.7.1 Fixed Supply Voltage and Variable Load ____________1.5.7.2 Variable Supply Voltage and Fixed Load ____________1.5.7.3 Variable Supply Voltage and Load ____1.6 Applications ________1.6.1 1.3V Supply from 5V ________1.6.2 9V Supply from 12V ________1.6.3 Battery Charger ________1.6.4 Polarity Indicator ________1.6.5 Light Meter ________1.6.6 Blown Fuse Indicator ________1.6.7 Diode Tester ________1.6.8 Emergency Phone-Line Light ________1.6.9 Phone Alert ________1.6.10 Lead-Acid Battery Monitor ________1.6.11 Zener Diode Regulator Using a Voltage Doubler ________1.6.12 Regulated Supply Using the TL431A ________1.6.13 Research Project 1 ________1.6.14 Research Project 2 ____Bibliography Chapter 2: Bipolar Junction Transistor ____2.1 Transistor Construction and Operation ____2.2 Transistor Configurations ________2.2.1 Common Emitter Configuration ____________2.2.1.1 Common Emitter Input Characteristic ____________2.2.1.2 Common Emitter Transfer Characteristic ____________2.2.1.3 Common Emitter Mutual Characteristic ____________2.2.1.4 Common Emitter Output Characteristics ________2.2.2 Common Base Configuration ____________2.2.2.1 Common Base Input Characteristics ____________2.2.2.2 Common Base Transfer Characteristic ____________2.2.2.3 Common Base Mutual Characteristic ____________2.2.2.4 Common Base Output Characteristics ________2.2.3 Common Collector Configuration ____________2.2.3.1 Common Collector Transfer Characteristic ____________2.2.3.2 Common Collector Output Characteristics ____2.3 Common Emitter Amplifier ________2.3.1 Transistor Amplifying Action ________2.3.2 Fixed Biasing ________2.3.3 Amplification ________2.3.4 Circuit Analysis ____2.4 Alternative Biasing Methods ________2.4.1 Voltage Divider Biasing ________2.4.2 Current Feedback Biasing ________2.4.3 Biasing Using a Bipolar Supply ____2.5 Common Base Amplifier ________2.5.1 Voltage Divider Biasing ________2.5.2 Constant Current or Fixed Bias ________2.5.3 Biasing Using a Bipolar Supply ____2.6 Common Collector Amplifier ________2.6.1 Voltage Divider Biasing ________2.6.2 Constant Current or Fixed Biasing ________2.6.3 Biasing Using a Bipolar Supply ____2.7 Transistor Operating Limits and Specifications ____2.8 Applications ________2.8.1 Microphone Preamplifier 1 ________2.8.2 Microphone Preamplifier 2 ________2.8.3 Speaker Protection Circuit ________2.8.4 Bench Power Supply ________2.8.5 Electronic Fuse ________2.8.6 Blown Fuse Indicator ________2.8.7 Telephone Monitor ________2.8.8 Audio Mixer ________2.8.9 Power Zener Diode ________2.8.10 Adjustable Zener Diode ________2.8.11 Diode Tester ________2.8.12 Dry Soil Indicator ________2.8.13 Lie Detector ________2.8.14 Research Project 1 ________2.8.15 Research Project 2 ____Bibliography Chapter 3: Field-Effect Transistor ____3.1 Operation of JFET ____3.2 JFET Characteristics ____3.3 JFET Parameters ____3.4 Using the JFET as an Amplifier ________3.4.1 Common Source Configuration ____________3.4.1.1 Fixed-Bias Configuration ____________3.4.1.2 Self-Bias ____________3.4.1.3 Voltage Divider Biasing ____________3.4.1.4 Biasing Using Bipolar Supply ________3.4.2 Common Drain Configuration ____________3.4.2.1 Biasing Using Bipolar Supply ________3.4.3 Common Gate Configuration ____________3.4.3.1 Biasing Using Bipolar Supply ____3.5 MOSFET ________3.5.1 Depletion-Type MOSFET ________3.5.2 Enhancement-Type MOSFET ________3.5.3 MOSFET Parameters ____3.6 MOSFET Amplifiers ________3.6.1 Depletion-Type MOSFET Common Source Amplifier ________3.6.2 Depletion-Type MOSFET Common Drain Amplifier ________3.6.3 Depletion-Type MOSFET Common Gate Amplifier ________3.6.4 Enhancement-Type MOSFET Common Source Amplifier ________3.6.5 Enhancement-Type MOSFET Common Drain Amplifier ________3.6.6 Enhancement-Type MOSFET Common Gate Amplifier ____3.7 Applications ________3.7.1 Headphone Amplifier ________3.7.2 JFET Preamplifier ________3.7.3 Crystal Microphone Lead Extender ________3.7.4 JFET DC Voltmeter ________3.7.5 JFET AC Voltmeter ________3.7.6 MOSFET Amplifier ________3.7.7 DC Motor Speed Controller ________3.7.8 Light Dimmer ________3.7.9 Adjustable Timer ________3.7.10 Research Project 1 ________3.7.11 Research Project 2 ________3.7.12 Research Project 3 ____Bibliography Chapter 4: BJT and FET Models ____4.1 h-Parameters and the BJT ____4.2 Analysis of a Common Emitter Amplifier Using h-Parameters ________4.2.1 Common Emitter Amplifier with Partial Decoupling ____________4.2.1.1 Bootstrapping ____________4.2.1.2 Alternative Amplifier Configuration ________4.2.2 Common Emitter Amplifier with Collector-Base Feedback Bias ____4.3 Analysis of the Common Collector Amplifier Using h-Parameters ________4.3.1 Bootstrapping ____4.4 Analysis of the CB Amplifier Using h-Parameters ____4.5 y-Parameters and the FET ____4.6 Analysis of the Common-Source JFET Amplifier ____4.7 Analysis of the Common-Drain JFET Amplifier ____4.8 Analysis of the Common-Gate JFET Amplifier ____4.9 Depletion MOSFET Common-Source Amplifier ____4.10 Depletion MOSFET Common-Drain Amplifier ____4.11 Depletion MOSFET Common-Gate Amplifier ____4.12 Enhancement MOSFET Common-Source Amplifier ____4.13 Enhancement MOSFET Common-Drain Amplifier ____4.14 Enhancement MOSFET Common-Gate Amplifier ____4.15 Applications ________4.15.1 Linear AC Voltmeter ________4.15.2 Audio Mixer ________4.15.3 Bootstrapped Source Follower Using a JFET ________4.15.4 Bootstrapped Source Follower Using a MOSFET ________4.15.5 Research Project 1 ________4.15.6 Research Project 2 ____Bibliography Chapter 5: Multiple Transistor and Special Circuits ____5.1 Cascaded Amplifiers ________5.1.1 Direct Coupled High-Gain Configurations ____________5.1.1.1 Bootstrapping ____5.2 Darlington Pair ________5.2.1 Darlington Pair in Common Collector Configuration ____5.3 Feedback Pair ________5.3.1 Feedback Pair in Emitter Follower Configuration ____5.4 Current Sources ________5.4.1 BJT Current Source 1 ________5.4.2 BJT Current Source 2 ________5.4.3 BJT Current Source 3 ________5.4.4 JFET Current Source 1 ________5.4.5 JFET Current Source 2 ____5.5 Current Mirror ____5.6 VBE Multiplier ____5.7 Cascode Amplifier ____5.8 Improved Emitter Follower ____5.9 Differential Amplifier ____5.10 BJT Switch ________5.10.1 BJT Device Switching ________5.10.2 BJT Switching Applications ____5.11 FET Switch ________5.11.1 JFET Switch ________5.11.2 MOSFET Switch ____5.12 Voltage-Controlled Resistor ____5.13 Applications ________5.13.1 Microphone Preamplifier 1 ________5.13.2 Microphone Preamplifier 2 ________5.13.3 Logic Probe ________5.13.4 Telephone Use Indicator ________5.13.5 FET Cascode Amplifier ________5.13.6 BJT Cascode Amplifier ________5.13.7 Touch-Sensitive Indicator ________5.13.8 Electromagnetic Field Detector ________5.13.9 Nickel-Cadmium Battery Charger ________5.13.10 Audio Level Meter ________5.13.11 Speaker to Microphone Converter ________5.13.12 Sound to Light Converter ________5.13.13 Low Drift DC Voltmeter ________5.13.14 AC Millivoltmeter ________5.13.15 High-Power Zener Diode ________5.13.16 Improved Audio Mixer ________5.13.17 Research Project 1 ________5.13.18 Research Project 2 ____Bibliography Chapter 6: Frequency Response of Transistor Amplifiers ____6.1 BJT Low-Frequency Response ________6.1.1 Input Coupling Capacitor ________6.1.2 Output Coupling Capacitor ________6.1.3 Emitter Bypass Capacitor ____6.2 FET Low-Frequency Response ____6.3 Hybrid-Pi Equivalent Circuit ________6.3.1 Single Pole Transfer Function ____6.4 Miller Effect ____6.5 Common Emitter Amplifier ____6.6 Common Emitter Amplifier with Local Series Feedback ____6.7 Common Emitter Amplifier with Local Shunt Feedback ____6.8 High-Frequency Response of the Cascode Amplifier ____6.9 High-Frequency Response of the Common Base Amplifier ____6.10 High-Frequency Response of the Common Collector Amplifier ____6.11 High-Frequency Response of a Common Source FET Amplifier ____6.12 High-Frequency Response of a Common Gate FET Amplifier ____6.13 High-Frequency Response of a Common Drain FET Amplifier ____6.14 High-Frequency Response of Multistage Amplifiers ____6.15 Applications ________6.15.1 Direct Coupled Ring-of-Three ________6.15.2 Common Emitter Amplifier with Local Series Feedback ________6.15.3 Common Emitter Amplifier with Local Shunt Feedback ________6.15.4 Cascode Amplifier Using BJTs ________6.15.5 Cascode Amplifier Using BJT and JFET ____Bibliography Chapter 7: Feedback Amplifiers ____7.1 Classification of Amplifiers ________7.1.1 Voltage Amplifier ________7.1.2 Current Amplifier ________7.1.3 Transconductance Amplifier ________7.1.4 Trans-resistance Amplifier ____7.2 Feedback Amplifier Topologies ________7.2.1 Voltage-Series Feedback ________7.2.2 Voltage-Shunt Feedback ________7.2.3 Current-Series Feedback ________7.2.4 Current-Shunt Feedback ____7.3 Transfer Gain with Feedback ____7.4 Gain Stabilization Using Negative Feedback ____7.5 Increase in Bandwidth Using Negative Feedback ____7.6 Feedback and Harmonic Distortion ____7.7 Input Resistance ________7.7.1 Voltage-Series Feedback ________7.7.2 Voltage-Shunt Feedback ________7.7.3 Current-Series Feedback ________7.7.4 Current-Shunt Feedback ____7.8 Output Resistance ________7.8.1 Voltage-Series Feedback ________7.8.2 Voltage-Shunt Feedback ________7.8.3 Current-Series Feedback ________7.8.4 Current-Shunt Feedback ____7.9 Analysis of Feedback Amplifiers ________7.9.1 Voltage-Series Feedback ________7.9.2 Current-Shunt Feedback ________7.9.3 Current-Series Feedback ________7.9.4 Voltage-Shunt Feedback ____7.10 Voltage Amplifiers ____7.11 Transistor Feedback Amplifier ________7.11.1 Differential Amplifier ________7.11.2 Common Emitter Amplifier ________7.11.3 Emitter Follower ____7.12 Stability and Compensation ________7.12.1 Compensating Feedback Amplifiers ________7.12.2 Dominant Pole Compensation ________7.12.3 Miller Compensation ________7.12.4 Lead Compensation ____7.13 Three-Transistor Feedback Amplifier ____7.14 Applications ________7.14.1 Three-Transistor Preamplifier ________7.14.2 DC Voltmeter Using Differential Amplifier ________7.14.3 RIAA Preamplifier ________7.14.4 JFET-BJT Preamplifier ________7.14.5 AC Millivoltmeter ________7.14.6 Video Amplifier ________7.14.7 Research Project 1 ________7.14.8 Research Project 2 ________7.14.9 Research Project 3 ________7.14.10 Research Project 4 ____Bibliography Chapter 8: Operational Amplifiers ____8.1 Introduction ____8.2 The Inverting Amplifier ________8.2.1 Inverting AC Amplifier ____8.3 The Non-inverting Amplifier ________8.3.1 Non-inverting AC Amplifier ____8.4 Voltage Follower ____8.5 Summing Amplifier ____8.6 The Differential Amplifier ____8.7 Integrator ____8.8 Differentiator ____8.9 Transimpedance Amplifier ____8.10 Transconductance Amplifier ____8.11 The Instrumentation Amplifier ____8.12 A Realistic Operational Amplifier ________8.12.1 Single Supply Operation ____8.13 Frequency Effects ________8.13.1 Inverting Configuration ____8.14 Non-ideal Effects ________8.14.1 Offset Voltage and Currents ________8.14.2 CMRR and PSRR ________8.14.3 CMRR of the Instrumentation Amplifier ________8.14.4 Slew Rate ____8.15 The Current Feedback Amplifier ________8.15.1 Inverting Amplifier ________8.15.2 Non-inverting Amplifier ________8.15.3 Mixer ________8.15.4 Differential Amplifier ________8.15.5 Integrator ________8.15.6 Further Bandwidth Considerations ____8.16 Applications ________8.16.1 DC Non-inverting Amplifier ________8.16.2 AC Non-inverting Amplifier ________8.16.3 Bootstrapped AC Amplifier ________8.16.4 DC Voltage Follower ________8.16.5 Inverting Amplifier ________8.16.6 Modified Inverting Amplifier ________8.16.7 AC Inverting Amplifier ________8.16.8 Differential Amplifier ________8.16.9 DC Voltmeter ________8.16.10 High-Impedance DC Voltmeter ________8.16.11 Stable Voltage Reference ________8.16.12 Linear Scale Ohmmeter ________8.16.13 AC Voltmeter ________8.16.14 High-Impedance AC Voltmeter ________8.16.15 Howland Current Pump ________8.16.16 Alternative Current Pump ________8.16.17 AC/DC Universal Voltmeter ________8.16.18 Op-Amp with Transformer-Coupled Output ________8.16.19 Op-Amp Transistor Gain Tester ________8.16.20 Research Project 1 ________8.16.21 Research Project 2 ________8.16.22 Research Project 3 ________8.16.23 Research Project 4 ________8.16.24 Research Project 5 ________8.16.25 Research Project 6 ____Bibliography Chapter 9: Power Amplifiers ____9.1 Amplifier Classes ____9.2 Fixed-Bias Class A Amplifier ________9.2.1 Efficiency Calculations ____9.3 Transformer-Coupled Class A Amplifier ____9.4 Class B Push-Pull Amplifier ____9.5 Low-Power Amplifier Design ________9.5.1 Power Supply ____9.6 Medium-Power Amplifier Design ____9.7 High-Power Amplifier Design ________9.7.1 Input Stage ________9.7.2 Intermediate Stage ________9.7.3 Output Stage ________9.7.4 Compensation Capacitor ____9.8 High-Power MOSFET Amplifier ____9.9 IC Power Amplifiers ________9.9.1 Low-Power IC Amplifier: LM386 ________9.9.2 USB-Powered Amplifier: LM4871 ________9.9.3 Medium-Power IC Amplifier: LM3886 ________9.9.4 High-Power IC Amplifier Driver: LME49811 ____9.10 Amplifier Accessories ________9.10.1 Heatsink Design ____9.11 Applications ________9.11.1 1.5 W Low-Power Amplifier ________9.11.2 50 W MOSFET Amplifier Using Bootstrapping ________9.11.3 Amplifier Clipping Indicator ________9.11.4 Unity-Gain Buffer ________9.11.5 Power Operational Amplifiers ________9.11.6 75 W Power Amplifier Using Feedback Pairs ________9.11.7 Research Project 1 ________9.11.8 Research Project 2 ________9.11.9 Research Project 3 ________9.11.10 Research Project 4 ________9.11.11 Research Project 5 ____Bibliography Chapter 10: Power Supplies ____10.1 Basic System ____10.2 Rectification ____10.3 Filtering ____10.4 Average DC Output Voltage ____10.5 Bipolar Unregulated Power Supplies ________10.5.1 Power Supplies for Class B Power Amplifiers ____10.6 Voltage Multipliers ____10.7 Voltage Regulators ________10.7.1 Ripple and Regulation ________10.7.2 Zener Diode Regulator ________10.7.3 Simple Series Transistor Regulator ________10.7.4 Series Feedback Voltage Regulators ____________10.7.4.1 Voltage Regulator Using Discrete Transistors ____________10.7.4.2 Op-Amp Series Regulator ____________10.7.4.3 Variable Output Voltage ________10.7.5 Protection Circuits ________10.7.6 IC Voltage Regulators ____________10.7.6.1 Three-Terminal Voltage Regulator ____________10.7.6.2 Fixed Positive Voltage Regulators ____________10.7.6.3 Fixed Negative Voltage Regulators ____________10.7.6.4 Adjustable Voltage Regulators ________10.7.7 Simple Approach to Regulated Power Supplies ____10.8 Applications ________10.8.1 Variable Voltage Regulated Supply ________10.8.2 Variable Power Supply with Zener Stabilization ________10.8.3 Discrete Voltage Regulator ________10.8.4 Bipolar Zener ________10.8.5 Simple Feedback Power Supply ________10.8.6 High-Current Variable Power Supply Using OPA549 Power Op-Amp ________10.8.7 Dual Tracking Power Supply ________10.8.8 Precision Voltage Divider ________10.8.9 Bipolar Adjustable Regulated Power Supply ________10.8.10 Variable Voltage Regulated Supply Using LM338 ________10.8.11 Research Project 1 ________10.8.12 Research Project 2 ________10.8.13 Research Project 3 ________10.8.14 Research Project 4 ________10.8.15 Research Project 5 ____Bibliography Chapter 11: Active Filters ____11.1 Introduction to Filters ____11.2 Basic First-Order Low-Pass Filter ________11.2.1 Low-Pass Filter with Gain ____11.3 Low-Pass Second-Order Filter ________11.3.1 Sallen-Key or Voltage-Controlled Voltage Source (VCVS) Topology ____________11.3.1.1 Simplified Design Procedure for Second-Order Low-Pass Unity-Gain Butterworth Filter ________11.3.2 Low-Pass Multiple Feedback Topology ____11.4 Higher Order Low-Pass Filters ________11.4.1 Third-Order Low-Pass Unity-Gain Filter ____________11.4.1.1 Simplified Design Procedure for Third-Order Low-Pass Unity-Gain Butterworth Filter ____11.5 High-Pass First-Order Filter-Butterworth Response ________11.5.1 First-Order High-Pass Filter with Gain ____11.6 High-Pass Second-Order Filter ________11.6.1 Sallen-Key or Voltage-Controlled Voltage Source (VCVS) Topology ____________11.6.1.1 Simplified Design Procedure for Second-Order High-Pass Unity-Gain Butterworth Filter ________11.6.2 High-Pass Second-Order Multiple Feedback Filter ____11.7 Higher Order High-Pass Filters ________11.7.1 Third-Order High-Pass Unity-Gain Filter ____________11.7.1.1 Simplified Design Procedure for Third-Order High-Pass Unity-Gain Butterworth Filter ____11.8 Band-Pass Filter ________11.8.1 Sallen-Key Band-Pass Filter ________11.8.2 Multiple Feedback Band-Pass Filter ________11.8.3 Wien Band-Pass Filter ____11.9 Band-Stop Filter ________11.9.1 Twin-T Notch Filter ________11.9.2 Wien Notch Filter ____11.10 All-Pass Filters ________11.10.1 First-Order all-Pass Filter ________11.10.2 First-Order All- Pass Filter Realization ____11.11 State Variable Filter ________11.11.1 Modified State Variable Filter ____11.12 Biquadratic Filters ________11.12.1 Band-Pass Filter Design ________11.12.2 Band-Stop Filter Design ____11.13 Applications ________11.13.1 Second-Order Speech Filter ____________11.13.1.1 All-Pass Notch ____________11.13.1.2 Variable Wide-Band Filter ____________11.13.1.3 Universal Filter ____________11.13.1.4 Research Project 1 ____________11.13.1.5 Research Project 2 ____Bibliography Chapter 12: Oscillators ____12.1 Conditions for Oscillation ____12.2 RC Oscillators ________12.2.1 Wien Bridge Oscillator ________12.2.2 Phase-Shift Oscillator-Lead Network ________12.2.3 Phase-Shift Oscillator-Lag Network ________12.2.4 Buffered Phase-Shift Oscillator ________12.2.5 Multiphase Sinusoidal Oscillator ________12.2.6 Quadrature Oscillator ________12.2.7 Another Quadrature Oscillator ____12.3 LC Oscillators ________12.3.1 LC Resonant Oscillator ________12.3.2 Colpitts and Hartley Oscillators ________12.3.3 Clapp Oscillator ________12.3.4 Simple LC Oscillator ____12.4 Crystal Oscillators ________12.4.1 Crystal Oscillator Using an Op-Amp ________12.4.2 Miller Oscillator ________12.4.3 Clapp Oscillator with Crystal Control ________12.4.4 Pierce Crystal Oscillator ________12.4.5 AD844 Crystal Oscillator ____12.5 Frequency Stability ____12.6 Amplitude Stabilization ____12.7 Oscillator Creation ____12.8 Applications ________12.8.1 Wide-Range Wien Bridge Oscillator ________12.8.2 Wien Bridge Oscillator Using a 741 Op-Amp ________12.8.3 Oscillator Using a JFET Input Amplifier ________12.8.4 Wien Bridge Oscillator Using Two-Transistor Amplifier ________12.8.5 Phase-Shift Oscillator Using a JFET ________12.8.6 Hartley Oscillator Using an Op-Amp ________12.8.7 Colpitts Oscillator Using an Op-Amp ________12.8.8 LC Resonant Oscillator Using a BJT ________12.8.9 Hartley Oscillator Using a BJT ________12.8.10 Colpitts Oscillator Using a BJT ________12.8.11 Crystal Oscillator 1 ________12.8.12 Crystal Oscillator 2 ________12.8.13 Phase-Shift Oscillator Using a BJT ________12.8.14 Research Project 1: Sinusoidal Oscillator Using the Twin-T Network ________12.8.15 Research Project 2: Sinusoidal Oscillator Using an Inverter ________12.8.16 Research Project 3: Crystal Oscillator Using Emitter Follower ________12.8.17 Research Project 4-Modified Twin-T Oscillator ____Bibliography Chapter 13: Waveform Generators and Nonlinear Circuits ____13.1 The Comparator ____13.2 Square-Wave Generation ________13.2.1 Sine Wave Generation from a Square-Wave Input ____13.3 Triangular Wave Generation ________13.3.1 Duty Cycle Modulation ________13.3.2 Sawtooth Generation ________13.3.3 Voltage-Controlled Oscillators ____________13.3.3.1 A Square/Triangular Waveform VCO ____________13.3.3.2 A Sinusoidal VCO ____13.4 Monostable Multivibrators ________13.4.1 The 555 Timer ____13.5 Precision Rectifiers ________13.5.1 Linear Half-Wave Rectifier ________13.5.2 Signal Polarity Separator ________13.5.3 Precision Rectifiers: The Absolute Value Circuit ________13.5.4 High-Impedance Precision Full-Wave Rectifier ________13.5.5 AC to DC Converter ____13.6 Applications ________13.6.1 Battery Monitor ________13.6.2 Sound-Activated Switch ________13.6.3 High-Speed Half-Wave Rectifier ________13.6.4 Window Comparator ________13.6.5 Non-inverting Schmitt Trigger ________13.6.6 Transistor Tester ________13.6.7 Sawtooth Wave Generator ________13.6.8 Zener Diode Tester ________13.6.9 Lamp Dimmer ________13.6.10 Voltage Doubler ________13.6.11 Schmitt Trigger Using 555 ________13.6.12 Research Project 1 ________13.6.13 Research Project 2 ________13.6.14 Research Project 3 ________13.6.15 Research Project 4 ________13.6.16 Research Project 5 Chapter 14: Special Devices ____14.1 Light-Dependent Resistor ____14.2 Photodiode ____14.3 Phototransistor ____14.4 Opto-isolator ________14.4.1 Photoresistor Opto-isolator ________14.4.2 Photofet Opto-isolator ________14.4.3 Photodiode Opto-isolator ________14.4.4 Phototransistor Opto-isolator ________14.4.5 Solid-State Relay ____14.5 Silicon-Controlled Rectifier ________14.5.1 Gate Turn-On Methods ____________14.5.1.1 Static Switching ____________14.5.1.2 Phase Control Switching ____________14.5.1.3 Full-Wave Control ________14.5.2 Gate Turn-Off Switch ________14.5.3 Light-Activated SCR ____14.6 TRIAC ________14.6.1 Triggering Methods ____________14.6.1.1 Static AC Switch ____________14.6.1.2 Phase Control Switching ________14.6.2 Phototriac Opto-isolator ____14.7 Shockley Diode ____14.8 DIAC ____14.9 Unijunction Transistor ____14.10 Programmable Unijunction Transistor ____14.11 Applications ________14.11.1 Battery Charger ________14.11.2 Temperature Controller Using a TRIAC ________14.11.3 Universal Motor Speed Controller ________14.11.4 Sawtooth Generator ________14.11.5 Flasher Circuit ________14.11.6 Zero Crossing Detector ________14.11.7 Research Project 1 ________14.11.8 Research Project 2 ________14.11.9 Research Project 3 ____Bibliography Index