推荐理由:
本次活动送书之一，估计很多人得不到，故分享电子版，该版本是PDF文字版，非常清晰，打印成实体也方便
书籍名称:
Designing Control Loops for Linear and Switching Power Supplies: A Tutorial Guid
封面图片:
简介 直接复制了亚马逊的简介)
Loop control is an essential area of electronics engineering that today's professionals need to master. A control system is a complex electronics architecture involving setpoints and targets. One simple example is the cruise control system of an automobile. Rather than delving into extensive theory, this practical book focuses on what power electronics engineers really need to know for compensating or stabilizing a given system. Engineers can turn instantly to practical sections with numerous design examples and ready-made formulas to help them with their projects in the field. Readers also find coverage of the underpinnings and principles of control loops so they can gain a more complete understanding of the material. This authoritative volume explains how to conduct analysis of control systems and provides extensive details on practical compensators. It helps engineers measure their system, showing how to verify if a prototype is stable and features enough design margin. Moreover, professionals learn how to secure high-volume production by bench-verified safety margins.
目录：
Basics of Loop Control 1
1.1 Open-Loop Systems 1
1.1.1 Perturbations 3
1.2 The Necessity of Control—Closed-Loop Systems 4
1.3 Notions of Time Constants 6
1.3.1 Working with Time Constants 7
1.3.2 The Proportional Term 9
1.3.3 The Derivative Term 10
1.3.4 The Integral Term 11
1.3.5 Combining the Factors 12
1.4 Performance of a Feedback Control System 12
1.4.1 Transient or Steady State? 13
1.4.2 The Step 15
1.4.3 The Sinusoidal Sweep 16
1.4.4 The Bode Plot 17
1.5 Transfer Functions 19
1.5.1 The Laplace Transform 20
1.5.2 Excitation and Response Signals 22
1.5.3 A Quick Example 23
1.5.4 Combining Transfer Functions with Bode Plots 25
1.6 Conclusion 27
Selected Bibliography 27
ChAPTer 2
Transfer Functions 29
2.1 Expressing Transfer Functions 29
2.1.1 Writing Transfer Functions the Right Way 31
2.1.2 The 0-db Crossover Pole 32
2.2 Solving for the Roots 32
2.2.1 Poles and Zeros Found by Inspection 35
2.2.2 Poles, Zeros, and Time Constants 36
vi Contents
2.3 Transient Response and Roots 39
2.3.1 When the Roots Are Moving 43
2.4 S-Plane and Transient Response 49
2.4.1 Roots Trajectories in the Complex Plane 54
2.5 Zeros in the Right Half Plane 56
2.5.1 A Two-Step Conversion Process 56
2.5.2 The Inductor Current Slew-Rate Is the Limit 58
2.5.3 An Average Model to Visualize RHP Zero Effects 60
2.5.4 The Right Half Plane Zero in the Boost Converter 62
2.6 Conclusion 66
References 66
Appendix 2A: Determining a Bridge Input Impedance 67
Reference 69
Appendix 2B: Plotting Evans Loci with Mathcad 70
Appendix 2C: Heaviside Expansion Formulas 71
Reference 74
Appendix 2D: Plotting a Right Half Plane Zero with SPICE 74
ChAPTer 3
Stability Criteria of a Control System 77
3.1 Building An Oscillator 77
3.1.1 Theory at Work 79
3.2 Stability Criteria 82
3.2.1 Gain Margin and Conditional Stability 84
3.2.2 Minimum Versus Nonminimum-Phase Functions 87
3.2.3 Nyquist Plots 89
3.2.4 Extracting the Basic Information from the Nyquist Plot 91
3.2.5 Modulus Margin 93
3.3 Transient Response, Quality Factor, and Phase Margin 97
3.3.1 A Second-Order System, the RLC Circuit 97
3.3.2 Transient Response of a Second-Order System 101
3.3.3 Phase Margin and Quality Factor 110
3.3.4 Opening the Loop to Measure the Phase Margin 117
3.3.5 The Phase Margin of a Switching Converter 120
3.3.6 Considering a Delay in the Conversion Process 122
3.3.7 The Delay in the Laplace Domain 127
3.3.8 Delay Margin versus Phase Margin 130
3.4 Selecting the Crossover Frequency 133
3.4.1 A Simplified Buck Converter 135
3.4.2 The Output Impedance in Closed-Loop Conditions 138
3.4.3 The Closed-Loop Output Impedance at Crossover 142
3.4.4 Scaling the Reference to Obtain the Desired Output 143
3.4.5 Increasing the Crossover Frequency Further 149
3.5 Conclusion 150
References 151
Contents vii
ChAPTer 4
Compensation 153
4.1 The PID Compensator 153
4.1.1 The PID Expressions in the Laplace Domain 155
4.1.2 Practical Implementation of a PID Compensator 157
4.1.3 Practical Implementation of a PI Compensator 161
4.1.4 The PID at Work in a Buck Converter 163
4.1.5 The Buck Converter Transient Response with the
PID Compensation 170
4.1.6 The Setpoint Is Fixed: We Have a Regulator! 171
4.1.7 A Peaky Output Impedance Plot 174
4.2 Stabilizing the Converter with Poles-Zeros Placement 176
4.2.1 A Simple Step-by-Step Technique 177
4.2.2 The Plant Transfer Function 178
4.2.3 Canceling the Static Error with an Integrator 179
4.2.4 Adjusting the Gain with the Integrator: The Type 1 182
4.2.5 Locally Boosting the Phase at Crossover 183
4.2.6 Placing Poles and Zeros to Create Phase Boost 185
4.2.7 Create Phase Boost up to 90° with a Single Pole/Zero Pair 189
4.2.8 Mid-Band Gain Adjustment with the Single Pole/Zero Pair:
The Type 2 191
4.2.9 Design Example with a Type 2 192
4.2.10 Create Phase Boost up to 180° with a Double Pole/Zero Pair 194
4.2.11 Mid-Band Gain Adjustment with the Double Pole/Zero Pair:
The Type 3 197
4.2.12 Design Example with a Type 3 199
4.2.13 Selecting the Right Compensator Type 200
4.2.14 The Type 3 at Work with a Buck Converter 201
4.3 Output Impedance Shaping 210
4.3.1 Making the Output Impedance Resistive 212
4.4 Conclusion 221
References 222
Appendix 4A: The Buck Output Impedance with Fast Analytical Techniques 222
Reference 227
Appendix 4B: The Quality Factor from a Bode Plot with Group Delay 227
Appendix 4C: The Phase Display in Simulators or Mathematical Solvers 230
Calculating the Tangent 232
Accounting for the Quadrant 234
Improving the Arctangent Function 236
Phase Display in a SPICE Simulator 237
Conclusion 242
Reference 243
Appendix 4D: Impact of Open-Loop Gain and Origin Pole on
Op Amp-Based Transfer Functions 243
The Integrator Case 248
Appendix 4E: Summary of Compensator Configurations 252
viii Contents
ChAPTer 5
Operational Amplifiers-Based Compensators 253
5.1 Type 1: An Origin Pole 253
5.1.1 A Design Example 255
5.2 Type 2: An Origin Pole, plus a Pole/Zero Pair 257
5.2.1 A Design Example 260
5.3 Type 2a: An Origin Pole plus a Zero 262
5.3.1 A Design Example 263
5.4 Type 2b: Some Static Gain plus a Pole 264
5.4.1 A Design Example 266
5.5 Type 2: Isolation with an Optocoupler 267
5.5.1 Optocoupler and Op Amp: the Direct Connection,
Common Emitter 269
5.5.2 A Design Example 271
5.5.3 Optocoupler and Op Amp: The Direct Connection,
Common Collector 273
5.5.4 Optocoupler and Op Amp: The Direct Connection
Common Emitter and UC384X 275
5.5.5 Optocoupler and Op Amp: Pull Down with Fast Lane 276
5.5.6 A Design Example 279
5.5.7 Optocoupler and Op Amp: Pull-Down with Fast Lane,
Common Emitter, and UC384X 280
5.5.8 Optocoupler and Op Amp: Pull Down Without Fast Lane 283
5.5.9 A Design Example 285
5.5.10 Optocoupler and Op Amp: A Dual-Loop Approach
in CC-CV Applications 288
5.5.11 A Design Example 293
5.6 The Type 2: Pole and Zero are Coincident to Create an Isolated Type 1 299
5.6.1 A Design Example 301
5.7 The Type 2: A Slightly Different Arrangement 303
5.8 The Type 3: An Origin Pole, a Pole/Zero Pair 308
5.8.1 A Design Example 313
5.9 The Type 3: Isolation with an Optocoupler 315
5.9.1 Optocoupler and Op Amp: The Direct Connection,
Common Collector 315
5.9.2 A Design Example 317
5.9.3 Optocoupler and Op Amp: The Direct Connection,
Common Emitter 319
5.9.4 Optocoupler and Op Amp: The Direct Connection,
Common Emitter, and UC384X 321
5.9.5 Optocoupler and Op Amp: Pull-Down with Fast Lane 322
5.9.6 A Design Example 326
5.9.7 Optocoupler and Op Amp: Pull Down without Fast Lane 328
5.9.8 A Design Example 332
5.10 Conclusion 335
References 335
Contents ix
Appendix 5A: Summary Pictures 335
Appendix 5B: Automating Components Calculations with k Factor 340
Type 1 340
Type 2 341
Type 3 342
Reference 344
Appendix 5C: The Optocoupler 346
Transmitting Light 346
Current Transfer Ratio 347
The Optocoupler Pole 348
Extracting the Optocoupler Pole 350
Watch for the LED Dynamic Resistance 351
Good Design Practices 354
References 355
ChAPTer 6
Operational Transconductance Amplifier–Based Compensators 357
6.1 The Type 1: An Origin Pole 358
6.1.1 A Design Example 359
6.2 The Type 2: An Origin Pole plus a Pole/Zero Pair 360
6.2.1 A Design Example 364
6.3 Optocoupler and OTA: A Buffered Connection 365
6.3.1 A Design Example 368
6.4 The Type 3: An Origin Pole and a Pole/Zero Pair 370
6.4.1 A Design Example 377
6.5 Conclusion 380
Appendix 6A: Summary Pictures 380
References 381
ChAPTer 7
TL431-Based Compensators 383
7.1 A Bandgap-Based Component 383
7.1.1 The Reference Voltage 385
7.1.2 The Need for Bias Current 387
7.2 Biasing the TL431: The Impact on the Gain 390
7.3 Biasing the TL431: A Different Arrangement 392
7.4 Biasing the TL431: Component Limits 395
7.5 The Fast Lane Is the Problem 396
7.6 Disabling the Fast Lane 397
7.7 The Type 1: An Origin Pole, Common-Emitter Configuration 399
7.7.1 A Design Example 402
7.8 The Type 1: Common-Collector Configuration 403
7.9 The Type 2: An Origin Pole plus a Pole/Zero Pair 403
7.9.1 A Design Example 407
7.10 The Type 2: Common-Emitter Configuration and UC384X 408
7.11 The Type 2: Common-Collector Configuration and UC384X 411
x Contents
7.12 The Type 2: Disabling the Fast Lane 411
7.12.1 A Design Example 413
7.13 The Type 3: An Origin Pole plus a Double Pole/Zero Pair 415
7.13.1 A Design Example 423
7.14 The Type 3: An Origin Pole plus a Double Pole/Zero
Pair—No Fast Lane 424
7.14.1 A Design Example 429
7.15 Testing the Ac Responses on a Bench 431
7.16 Isolated Zener-Based Compensator 434
7.16.1 A Design Example 436
7.17 Nonisolated Zener-Based Compensator 441
7.18 Nonisolated Zener-Based Compensator: A Lower Cost Version 443
7.19 Conclusion 445
References 445
Appendix 7A: Summary Pictures 445
Appendix 7B: Second Stage LC Filter 448
A Simplified Approach 449
Simulation at Work 450
References 454
ChAPTer 8
Shunt Regulator–Based Compensators 455
8.1 The Type 2: An Origin Pole plus a Pole/Zero Pair 456
8.1.1 A Design Example 460
8.2 The Type 3: An Origin Pole plus a Double Pole/Zero Pair 466
8.2.1 A Design Example 468
8.3 The Type 3: An Origin Pole plus a Double Pole/Zero Pair—No Fast Lane 471
8.3.1 A Design Example 474
8.4 Isolated Zener-Based Compensator 476
8.4.1 A Design Example 480
8.5 Conclusion 483
References 483
Appendix 8A: Summary Pictures 484
ChAPTer 9
Measurements and Design Examples 487
9.1 Measuring the Control System Transfer Function 487
9.1.1 Opening the Loop with Bias Point Loss 488
9.1.2 Power Stage Transfer Function without Bias Point Loss 492
9.1.3 Opening the Loop in ac Only 493
9.1.4 Voltage Variations at the Injection Points 496
9.1.5 Impedances at the Injection Points 504
9.1.6 Buffering the Data 505
9.2 Design Example 1: A Forward dc-dc Converter 509
9.2.1 Moving Parameters 509
9.2.2 The Electrical Schematic 511
Contents xi
9.2.3 Extracting the Power Stage Transfer Response 514
9.2.4 Compensating the Converter 515
9.3 Design Example 2: A Linear Regulator 519
9.3.1 Extracting the Power Stage Transfer Function 520
9.3.2 Crossover Frequency Selection and Compensation 521
9.3.3 Testing the Transient Response 527
9.4 Design Example 3: A CCM Voltage-Mode Boost Converter 528
9.4.1 The Power Stage Transfer Function 529
9.4.2 Compensating the Converter 533
Strategy 1 535
Strategy 2 535
9.4.3 Plotting the Loop Gain 537
9.5 Design Example 4: A Primary-Regulated Flyback Converter 539
9.5.1 Deriving the Transfer Function 540
9.5.2 Verifying the Equations 544
9.5.3 Stabilizing the Converter 545
9.6 Design Example 5: Input Filter Compensation 552
9.6.1 A Negative Incremental Resistance 553
9.6.2 Building an Oscillator 554
9.6.3 Taming the Oscillations 556
9.7 Conclusion 562
References
作者:
Christophe Basso is a product engineering director at ON Semiconductor in Toulouse, France. He received his B.S.E.E. in electronics from Montpellier University and his M.S.E.E. in power electronics from the National Polytechnic Institute of Toulouse. A Senior Member of the IEEE, Mr. Basso is recognized expert, patent holder, and author in the field.
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