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دسته بندی: فن آوری ویرایش: 3 نویسندگان: William Bolton سری: ISBN (شابک) : 0128234717, 9780128234716 ناشر: Newnes سال نشر: 2021 تعداد صفحات: 375 زبان: English فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 36 مگابایت
در صورت تبدیل فایل کتاب Instrumentation and Control Systems 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 ابزار دقیق و سیستم های کنترل 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.
سیستمهای ابزار دقیق و کنترل، ویرایش سوم، به اصول اولیه سیستمهای ابزار دقیق و کنترل مدرن، از جمله نمونههایی از جدیدترین دستگاهها، تکنیکها و برنامهها میپردازد. این کتاب مقدمهای جامع در مورد این موضوع ارائه میکند که لاپلاس به شکلی ساده و در دسترس ارائه شده و با طرحی از ریاضیات تکمیل شده است که برای پیشرفت به سطوح پیشرفتهتر مطالعه لازم است. نویسنده با اتخاذ یک رویکرد بسیار عملی، نظریه زیربنایی را با مطالعات موردی و کاربردهای متعدد در سراسر آن ترکیب میکند، بنابراین خواننده را قادر میسازد تا مستقیماً محتوا را در زمینههای مهندسی دنیای واقعی اعمال کند.
پوشش شامل ابزار دقیق، DAQ، ملاحظات حیاتی بهداشت و ایمنی، و مسائل عملی مانند کاهش نویز، نگهداری و آزمایش است. PLC ها و برنامه نویسی نردبانی در متن گنجانده شده است، همچنین اطلاعات جدیدی که برنامه های نرم افزاری مختلفی را که برای شبیه سازی استفاده می شوند معرفی می کند. رویکرد کلی این کتاب، آن را به متنی ایدهآل برای تمام دورههای مقدماتی مقطع کارشناسی مهندسی کنترل و ابزار دقیق تبدیل میکند.
Instrumentation and Control Systems, Third Edition, addresses the basic principles of modern instrumentation and control systems, including examples of the latest devices, techniques and applications. The book provides a comprehensive introduction on the subject, with Laplace presented in a simple and easily accessible form and complemented by an outline of the mathematics that would be required to progress to more advanced levels of study. Taking a highly practical approach, the author combines underpinning theory with numerous case studies and applications throughout, thus enabling the reader to directly apply the content to real-world engineering contexts.
Coverage includes smart instrumentation, DAQ, crucial health and safety considerations, and practical issues such as noise reduction, maintenance and testing. PLCs and ladder programming is incorporated in the text, as well as new information introducing various software programs used for simulation. The overall approach of this book makes it an ideal text for all introductory level undergraduate courses in control engineering and instrumentation.
Title-page_2021_Instrumentation-and-Control-Systems Instrumentation and Control Systems Copyright_2021_Instrumentation-and-Control-Systems Copyright Contents_2021_Instrumentation-and-Control-Systems Contents Preface_2021_Instrumentation-and-Control-Systems Preface Structure of the Book Performance Outcomes Software Tools Changes for the 3rd edition Acknowledgement_2021_Instrumentation-and-Control-Systems Acknowledgement Chapter-1---Measurement-Systems_2021_Instrumentation-and-Control-Systems 1 Measurement Systems 1.1 Introduction 1.1.1 Systems 1.2 Instrumentation Systems 1.2.1 The Constituent Elements of an Instrumentation System 1.3 Performance Terms 1.3.1 Resolution, Accuracy, and Error 1.3.2 Range 1.3.3 Precision, Repeatability, and Reproducibility 1.3.4 Sensitivity 1.3.5 Stability 1.3.6 Dynamic Characteristics 1.4 Dependability 1.4.1 Reliability 1.5 Requirements 1.5.1 Calibration 1.5.2 Safety Systems Problems Chapter-2---Instrumentation-System-Elem_2021_Instrumentation-and-Control-Sys 2 Instrumentation System Elements 2.1 Introduction 2.2 Displacement Sensors 2.2.1 Potentiometer 2.2.2 Strain-Gauged Element 2.2.3 Capacitive Element 2.2.4 Linear Variable Differential Transformer 2.2.5 Optical Encoders 2.2.6 Moiré Fringes 2.2.7 Optical Proximity Sensors 2.2.8 Mechanical Switches 2.2.9 Capacitive Proximity Sensor 2.2.10 Inductivity Proximity Sensor 2.3 Speed Sensors 2.3.1 Optical Methods 2.3.2 Incremental Encoder 2.3.3 Tachogenerator 2.4 Fluid Pressure Sensors 2.4.1 Diaphragm Sensor 2.4.2 Piezoelectric Sensor 2.4.3 Bourdon Tube 2.5 Fluid Flow 2.5.1 Differential Pressure Methods 2.5.2 Turbine Meter 2.5.3 Ultrasonic Time of Flight Flow Meter 2.5.4 Vortex Flow Rate Method 2.5.5 Coriolis Flow Meter 2.6 Liquid Level 2.6.1 Floats 2.6.2 Displacer Gauge 2.6.3 Differential Pressure 2.6.4 Load Cell 2.6.5 Electrical Conductivity Level Indicator 2.6.6 Capacitive Level Indicator 2.6.7 Ultrasonic Level Gauge 2.6.8 Nucleonic Level Indicators 2.7 Temperature Sensors 2.7.1 Bimetallic Strips 2.7.2 Liquid in Glass Thermometers 2.7.3 Resistance Temperature Detectors (RTDs) 2.7.4 Thermistors 2.7.5 Thermocouples 2.7.6 Thermodiodes and Transistors 2.7.7 Pyrometers 2.8 Sensor Selection 2.9 Signal Processing 2.9.1 Resistance to Voltage Converter 2.9.2 Temperature Compensation 2.9.3 Thermocouple Compensation 2.9.4 Protection 2.9.5 Analogue-to-Digital Conversions 2.9.6 Digital-to-Analogue Conversions 2.9.7 Microcontroller Systems 2.9.8 Op-Amps 2.9.9 Pressure-to-Current Converter 2.10 Signal Transmission 2.10.1 Noise 2.11 Smart Systems 2.11.1 MEMS 2.12 Data Presentation Element 2.12.1 Indicator 2.12.2 Illuminative Displays 2.12.3 Graphical User Interface (GUI) 2.12.4 Data Loggers 2.12.5 Printers Problems Chapter-3---Measurement-Case-Studies_2021_Instrumentation-and-Control-System 3 Measurement Case Studies 3.1 Introduction 3.2 Case Studies 3.2.1 A Temperature Measurement 3.2.2 An Absolute Pressure Measurement 3.2.3 Detection of the Angular Position of a Shaft 3.2.4 Air Flow Rate Determination 3.2.5 Fluid Level Monitoring 3.2.6 Measurement of Relative Humidity 3.2.7 Dimension Checking 3.2.8 Temperature of a Furnace 3.2.9 Automobile Tyre Pressure Monitoring 3.2.10 Control System Sensors with Automobiles 3.3 Data Acquisition Systems 3.3.1 Data Acquisition Software 3.3.2 Data Loggers 3.4 Testing 3.4.1 Maintenance 3.4.2 Common Faults Problems Chapter-4---Control-Systems_2021_Instrumentation-and-Control-Systems 4 Control Systems 4.1 Introduction 4.2 Control Systems 4.2.1 Open- and Closed-Loop Control 4.3 Basic Elements 4.3.1 Basic Elements of a Closed-Loop System 4.4 Case Studies 4.4.1 Control of the Speed of Rotation of a Motor Shaft 4.4.2 Control of the Position of a Tool 4.4.3 Power Steering 4.4.4 Control of Fuel Pressure 4.4.5 Antilock Brakes 4.4.6 Thickness Control 4.4.7 Control of Liquid Level 4.4.8 Robot Gripper 4.4.9 Machine Tool Control 4.4.10 Fluid Flow Control 4.5 Discrete-Time Control Systems 4.6 Digital Control Systems 4.7 Hierarchical Control Problems Chapter-5---Process-Controllers_2021_Instrumentation-and-Control-Systems 5 Process Controllers 5.1 Introduction 5.1.1 Direct and Reverse Actions 5.1.2 Dead Time 5.1.3 Capacitance 5.2 On–Off Control 5.2.1 Relays 5.3 Proportional Control 5.3.1 Proportional Band 5.3.2 Limitations of Proportional Control 5.4 Derivative Control 5.4.1 PD Control 5.5 Integral Control 5.5.1 PI Control 5.6 PID Control 5.6.1 PID Process Controller 5.7 Tuning 5.7.1 Process Reaction Tuning Method 5.7.2 Ultimate Cycle Tuning Method 5.7.3 Quarter Amplitude Decay 5.7.4 Lambda Tuning 5.7.5 Software Tools 5.7.6 Adaptive Controllers 5.8 Digital Systems 5.8.1 Embedded Systems 5.9 Fuzzy Logic Control 5.9.1 Fuzzy Logic 5.9.2 Fuzzy Logic Control Systems 5.9.3 Fuzzy Logic Controller 5.9.4 Fuzzy Logic Tuning of PID Controllers 5.10 Neural Networks 5.10.1 Neural Networks for Control Problems Chapter-6---Correction-Elements_2021_Instrumentation-and-Control-Systems 6 Correction Elements 6.1 Introduction 6.1.1 The Range of Actuators 6.2 Pneumatic and Hydraulic Systems 6.2.1 Current to Pressure Converter 6.2.2 Pressure Sources 6.2.3 Control Valves 6.2.4 Actuators 6.3 Directional Control Valves 6.3.1 Sequencing 6.3.2 Shuttle Valve 6.4 Flow Control Valves 6.4.1 Forms of Plug 6.4.2 Rangeability and Turndown 6.4.3 Control Valve Sizing 6.4.4 Valve Positioners 6.4.5 Other Forms of Flow Control Valves 6.4.6 Fail-Safe Design 6.5 Motors 6.5.1 D.C. Motors 6.5.2 Brushless Permanent Magnet D.C. Motor 6.5.3 Stepper Motor 6.6 Case Studies 6.6.1 A Liquid Level Process Control System 6.6.2 Milling Machine Control System 6.6.3 A Robot Control System Problems Chapter-7---PLC-Systems_2021_Instrumentation-and-Control-Systems 7 PLC Systems 7.1 Introduction 7.2 Logic Gates 7.2.1 Field-Programmable Gate Arrays 7.3 PLC System 7.4 PLC Programming 7.4.1 Logic Gates 7.4.2 Latching 7.4.3 Internal Relays 7.4.4 Timers 7.4.5 Counters 7.5 Testing and Debugging 7.6 Case Studies 7.6.1 Signal Lamp to Monitor Operations 7.6.2 Cyclic Movement of a Piston 7.6.3 Sequential Movement of Pistons 7.6.4 Central Heating System Problems Chapter-8---System-Models_2021_Instrumentation-and-Control-Systems 8 System Models 8.1 Introduction 8.1.1 Static Response 8.1.2 Dynamic Response 8.2 Gain 8.2.1 Gain of Systems in Series 8.2.2 Feedback Loops 8.3 Dynamic Systems 8.3.1 Mechanical Systems 8.3.2 Rotational Systems 8.3.3 Electrical Systems 8.3.4 Thermal Systems 8.3.5 Hydraulic Systems 8.4 Differential Equations 8.4.1 First-Order Differential Equations 8.4.2 Second-Order Differential Equations 8.4.3 System Identification Problems Chapter-9---Transfer-Function_2021_Instrumentation-and-Control-Systems 9 Transfer Function 9.1 Introduction 9.2 Transfer Function 9.2.1 Transfer Function 9.2.2 Transfer Functions of Common System Elements 9.2.3 Transfer Functions and Systems 9.3 System Transfer Functions 9.3.1 Systems in Series 9.3.2 Systems with Feedback 9.4 Block Manipulation 9.4.1 Blocks in Series 9.4.2 Moving Takeoff Points 9.4.3 Moving a Summing Point 9.4.4 Changing Feedback and Forward Paths 9.5 Multiple Inputs 9.6 Sensitivity 9.6.1 Sensitivity to Changes in Parameters 9.6.2 Sensitivity to Disturbances Problems Chapter-10---System-Response_2021_Instrumentation-and-Control-Systems 10 System Response 10.1 Introduction 10.2 Inputs 10.3 Determining Outputs 10.3.1 Partial Fractions 10.4 First-Order Systems 10.4.1 First-Order System Parameters 10.5 Second-Order Systems 10.5.1 Second-Order System Parameters 10.6 Stability 10.6.1 The s Plane 10.7 Steady-State Error Problems Chapter-11---Frequency-Response_2021_Instrumentation-and-Control-Systems 11 Frequency Response 11.1 Introduction 11.1.1 Sinusoidal Signals 11.1.2 Complex Numbers 11.2 Sinusoidal Inputs 11.2.1 Frequency Response Function 11.2.2 Frequency Response for First-Order Systems 11.2.3 Frequency Response for Second-Order Systems 11.3 Bode Plots 11.3.1 Transfer Function a Constant K 11.3.2 Transfer Function 1/sn 11.3.3 Transfer Function sm 11.3.4 Transfer Function 1/(1+τs) 11.3.5 Transfer Function (1+τs) 11.3.6 Transfer Function ωn2/(s2+2ζωns+ωn2) 11.3.7 Transfer Function (s2+2ζωns+ωn2)/ωn2 11.4 System Identification 11.5 Stability 11.5.1 Stability Measures 11.6 Compensation 11.6.1 Changing the Gain 11.6.2 Phase-Lead Compensation 11.6.3 Phase-Lag Compensation Problems Chapter-12---Nyquist-Diagrams_2021_Instrumentation-and-Control-Systems 12 Nyquist Diagrams 12.1 Introduction 12.2 The Polar Plot 12.2.1 Nyquist Diagrams 12.3 Stability 12.4 Relative Stability Problems Chapter-13---Control-Systems_2021_Instrumentation-and-Control-Systems 13 Control Systems 13.1 Introduction 13.2 Controllers 13.2.1 Proportional Steady-State Offset 13.2.2 Disturbance Rejection 13.2.3 Integral Wind-Up 13.2.4 Bumpless Transfer 13.3 Frequency Response 13.4 Systems with Dead Time 13.5 Cascade Control 13.6 Feedforward Control 13.7 Digital Control Systems 13.7.1 The z-Transform 13.7.2 The Digital Transfer Function G(z) 13.7.3 PID Controller 13.7.4 Software Implementation of PID Control 13.8 Control Networks 13.8.1 Data Transmission 13.8.2 Networks 13.8.3 Control Area Network (CAN) 13.8.4 Automated Assembly Lines 13.8.5 Automated Process Plant Networks 13.8.6 PLC Networks 13.8.7 Supervisory Control and Data Acquisition (SCADA) 13.8.8 The Common Industrial Protocol (CIP) 13.8.9 Security Issues Problems Answers_2021_Instrumentation-and-Control-Systems Answers Chapter 1 Chapter 2 Chapter 3 Chapter 4 Chapter 5 Chapter 6 Chapter 7 Chapter 8 Chapter 9 Chapter 10 Chapter 11 Chapter 12 Chapter 13 Appendix-A---Errors_2021_Instrumentation-and-Control-Systems Appendix A Errors A.1 Measurement Errors A.2 Random Errors A.2.1 Mean Values A.2.2 Standard Deviation A.2.3 Error of a Mean A.3 Combination of Errors A.3.1 Errors When Adding Quantities A.3.2 Errors When Subtracting Quantities A.3.3 Errors When Multiplying Quantities A.3.4 Errors When Dividing Quantities Appendix-B---Differential-Equations_2021_Instrumentation-and-Control-Systems Appendix B Differential Equations B.1 Differential Equations B.2 Solving Differential Equations B.2.1 Solving a First-Order Differential Equation B.2.2 Complementary Function and Particular Integral B.2.3 Solving a Second-Order Differential Equation Appendix-C---Laplace-Transform_2021_Instrumentation-and-Control-Systems Appendix C Laplace Transform C.1 The Laplace Transform C.2 Obtaining the Transform C.2.1 Properties of the Laplace Transform C.2.2 Initial and Final Values C.3 The Inverse Transform C.4 Solving Differential Equations Appendix-D---The-z-Transform_2021_Instrumentation-and-Control-Systems Appendix D The z-Transform D.1 The z-Transform D.1.1 The z and Laplace Transforms D.1.2 Properties of the z-Transform D.1.3 Some Important z-Transforms D.2 The Inverse z-Transform Index_2021_Instrumentation-and-Control-Systems Index