Foundations of analog and digital electronic circuits:
Gespeichert in:
| 1. Verfasser: | |
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| Format: | Buch |
| Sprache: | English |
| Veröffentlicht: |
Amsterdam [u.a.]
Elsevier
2005
|
| Schlagworte: | |
| Online-Zugang: | Inhaltsverzeichnis |
| Beschreibung: | Includes bibliographical references and index |
| Beschreibung: | XXIV, 984 S. Ill., graph. Darst. |
| ISBN: | 1558607358 9781558607354 |
Internformat
MARC
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| 100 | 1 | |a Agarwal, Anant |e Verfasser |4 aut | |
| 245 | 1 | 0 | |a Foundations of analog and digital electronic circuits |c Anant Agarwal ; Jeffrey H. Lang |
| 264 | 1 | |a Amsterdam [u.a.] |b Elsevier |c 2005 | |
| 300 | |a XXIV, 984 S. |b Ill., graph. Darst. | ||
| 336 | |b txt |2 rdacontent | ||
| 337 | |b n |2 rdamedia | ||
| 338 | |b nc |2 rdacarrier | ||
| 500 | |a Includes bibliographical references and index | ||
| 650 | 7 | |a Circuitos eletrônicos |2 larpcal | |
| 650 | 7 | |a Circuits électroniques |2 ram | |
| 650 | 4 | |a Electronic circuits |v Textbooks | |
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| 700 | 1 | |a Lang, Jeffrey |e Sonstige |4 oth | |
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Datensatz im Suchindex
| _version_ | 1804134677524512768 |
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| adam_text | Titel: Foundations of analog and digital electronic circuits
Autor: Agarwal, Anant
Jahr: 2005
CONTENTS
Material marked with IVH l . l appears on the Internet (please see Preface for detail s).
Preface ......................................................................................... xvü
Approach ............................................................................ xvü
Overview ............................................................................ xrx
Course Organization............................................................. xx
Adcnowledgments................................................................ xxi
CHAPTtR i The Circuit Abstraction ......................................... 3
1.1 The Power of Abstraction...................................................... 3
1.2 The Lumped Circuit Abstraction............................................. 5
1.3 The Lumped Matter Disdpline............................................... 9
1.4 Limitations of the Lumped Circuit Abstraction.......................... 13
1.5 Practical Two-Terminal Elements............................................ 15
1.5.1 Batteries................................................................ 16
1.5.2 Linear Resistors ...................................................... 18
1.5.3 Associated Variables Convention ............................... 25
1.6 Ideal Two-Terminal Elements ................................................ 29
1.6.1 Ideal Voltage Sources, Wires, and Resistors.................. 30
1.6.2 ElementLaws ........................................................ 32
1.6.3 The Current Source ? Another Ideal Two- Terminal
Element................................................................ 33
1.7 Modeling Physical Elements................................................... 36
1.8 Signal Representation............................................................ 40
1.8.1 Analog Signals ....................................................... 41
1.8.2 Digital Signals?Value Discretization........................ 43
1.9 Summary and Exercises......................................................... 46
chapter z ResistiveNetworks ............................................... 53
2.1 Terminobgy........................................................................ 54
2.2 Kirchhofs Laws................................................................... 55
2.2.1 KCL ................................................................... 56
2.2.2 KVL ..................................................................... 60
2.3 Circuit Analysis: Basic Method ............................................... 66
2.3.1 Single-Resistor Circuits ............................................ 67
232 Quick Intuitive Analysis of Single-Resistor Circuits........ 70
2.3.3 Energy Conservation............................................... 71
2.3.4 Voltage and Current Dividers ................................... 73
2.3.5 A More Complex Circuit ......................................... 84
2.4 Intuitive Method of Circuit Analysis: Series and
Parallel Sirnplification............................................................. 89
2.5 More Circuit Examples.......................................................... 95
2.6 Dependent Sources and the Control Concept............................ 98
2.6.1 Circuits with Dependent Sources ............................... 102
EZZQ 2.7 A Formulation Suitable for a Computer Solution ....................... 107
2.8 Summary and Exercises......................................................... 108
chapter 3 Network Theorems .............................................. 119
3.1 Introduction ........................................................................ 119
3.2 The Node Voltage................................................................ 119
3.3 The Node Method................................................................ 125
3.3.1 Node Method: A Second Example ............................. 130
3.3.2 Floating Independent Voltage Sources......................... 135
3.3.3 Dependent Sources and the Node Method ................... 139
maHiÄ 3.3.4 The Conductance and Source Matrices ........................ 145
ESM 3.4 Loop Method...................................................................... 145
3.5 Superposition....................................................................... 145
3.5.1 Superposition Rules for Dependent Sources.................. 153
3.6 Thevenin s Theorem and Norton s Theorem............................ 157
3.6.1 The Thevenin Equivalent Network............................ 157
3.6.2 The Norton Equivalent Network ............................... 167
3.6.3 More Examples ...................................................... 171
3.7 Summary and Exercises......................................................... 177
chapter 4 Analysis of Nonlinear Circuits ................................ 193
4.1 Introduction to Nonlinear Elements ........................................ 193
4.2 Analytical Solutions.............................................................. 197
4.3 Graphical Analysis................................................................ 203
4.4 Piecewise Linear Analysis....................................................... 206
CEO 4.4.1 Improved Piecewise Linear Models for Nonlinear
Elements............................................................... 214
4.5 Incremental Analysis............................................................. 214
4.6 Summary and Exercises......................................................... 229
chapter 5 The Digital Abstraction .......................................... 243
5.1 Voltage Levels and the Stade Discipline.................................... 245
5.2 Boolean Logic...................................................................... 256
5.3 Combinational Gates ............................................................ 258
5.4 Standard Sum-of-Products Representation................................ 261
5.5 Simplifying Logic Expressions................................................ 262
5.6 Number Representation......................................................... 267
5.7 Summary and Exercises......................................................... 274
chapter 6 The MOSFET Switch ........................................... 285
6.1 The Switch.......................................................................... 285
6.2 Logic Functions Using Switches.............................................. 288
6.3 The MOSFET Device and Its S Model..................................... 288
6.4 MOSFET Switch Implementation of Logic Gates ...................... 291
6.5 Static Analysis Using the S Model ........................................... 296
6.6 The SR Model of the MOSFET.............................................. 300
6.7 Physical Structure of the MOSFET.......................................... 301
6.8 Static Analysis Using the SR Model......................................... 306
6.8.1 Static Analysis ofthe NAND Gate Using the
SRModel .............................................................. 311
6.9 Signal Restoration, Gain, and Nonlinearity ............................... 314
6.9.1 Signal Restoration and Gain ..................................... 314
6.9.2 Signal Restoration and Nonlinearity ........................... 317
6.9.3 Buffer Transfer Characteristics and the Static
Disäpline .............................................................. 318
6.9.4 Inverter Transfer Characteristics and the Static
Disäpline .............................................................. 319
6.10 Power Consumption in Logic Gates........................................ 320
6.11 Active Pullups ...................................................................... 321
6.12 Summary and Exercises......................................................... 322
chapter 7 The MOSFET Amplifier........................................ 331
7.1 Signal Amplification.............................................................. 331
7.2 Review of Dependent Sources ................................................ 332
7.3 Actual MOSFET Characteristics.............................................. 335
7.4 The Switch-Current Source (SCS) MOSFET Model ................... 340
7.5 The MOSFET Amplifier........................................................ 344
7.5.1 Biasing the MOSFET Amplifier................................. 349
7.5.2 The Amplifier Abstraction and the Saturation
Disäpline .............................................................. 352
7.6 Large-Signal Analysis of the MOSFET Amplifier ....................... 353
7.6.1 vftt Versus vcxjt in the Saturation Region ................... 353
7.6.2 Valid Input and Output Voltage Ranges ..................... 356
7.6.3 Alternative Metlxxl for Valid Input and Output
Voltage Ranges....................................................... 363
7.7 Operating Point Selection ...................................................... 365
7.8 Switch Unified (SU) MOSFET Model...................................... 386
7.9 Summary and Exercises......................................................... 389
chapter 8 The Small-Signal Model......................................... 405
8.1 Overview of the Nonlinear MOSFET Amplifier......................... 405
8.2 The Small-Signal Model......................................................... 405
8.2.1 Small-Signal Circuit Representation ........................... 413
8.2.2 Small-Signal Circuit for the MOSFET Amplifier ........... 418
8.2.3 Selecting an Operating Point..................................... 420
8.2.4 Input and Output Resistance, Current and
Power Gain ........................................................... 423
8.3 Summary and Exercises......................................................... 447
chapter 9 Energy Storage Elements ....................................... 457
9.1 Constitutive Laws................................................................. 461
9.1.1 Capacitors ............................................................. 461
9.1.2 Inductors............................................................... 466
9.2 Series and Parallel Connections ............................................... 470
9.2.1 Capacitors ............................................................. 471
9.2.2 Inductors............................................................... 472
9.3 Special Examples.................................................................. 473
9.3.1 MOSFET Gate Capacitance ..................................... 473
9.3.2 Wiring Loop Inductance .......................................... 476
9.3.3 IC Wiring Capacitance and Inductance ....................... 477
9.3.4 Transformers ......................................................... 478
9.4 Simple Circuit Examples........................................................ 480
ESM 9.4.1 Sinusoidal Inputs .................................................... 482
9.4.2 Steplnputs ............................................................ 482
9.4.3 Impulse Inputs ....................................................... 488
EXS3 9.4.4 RoleReversal ......................................................... 489
9.5 Energy, Charge, and Flux Conservation ................................... 489
9.6 Summary and Exercises......................................................... 492
chapter io First-Order Transients in Linear Electrical
Networks ..................................................................................... 503
10.1 Analysis ofRC Circuits.......................................................... 504
10.1.1 Parallel RC Circuit, Step Input .................................. 504
10.1.2 RC Discharge Transient ........................................... 509
10.1.3 Series RC Circuit, Step Input..................................... 511
10.1.4 Series RC Circuit, Square-Wave Input........................ 515
10.2 Analysis of RL Circuits.......................................................... 517
10.2.1 Series RL Circuit, Step Input ..................................... 517
10.3 Intuitive Analysis.................................................................. 520
10.4 Propagation Delay and the Digital Abstraction .......................... 525
10.4.1 Definitionsof Propagation Delays .............................. 527
10.4.2 Computing fa fromthe SRC MOSFET Model ......... 529
10.5 State and State Variables........................................................ 538
10.5.1 The Concept of State............................................... 538
10.5.2 Computer Analysis Using the State Equation ............... 540
10.5.3 Zero-Input and Zero-State Response.......................... 541
VMM 10.5.4 Solution by Integrating Factors .................................. 544
10.6 Additional Examples............................................................. 545
10.6.1 Effect ofWire Inductance in Digital Circuits ................. 545
10.6.2 Ramp Inputs and Linearity ....................................... 545
10.6.3 Response ofan RC Circuit to Short Pulses and the
Impulse Response ................................................... 550
10.6.4 Intuitive Method for the Impulse Response................... 553
10.6.5 Clock Signals and Clock Fanout ................................ 554
UX!0 10.6.6 RC Response to Decaying Exponential ....................... 558
10.6.7 Series RL Circuit with Sine-Wave Input ...................... 558
10.7 Digital Memory.................................................................... 561
10.7.1 The Concept of Digital State ..................................... 561
10.7.2 An Ahstract Digital Memory Element ......................... 562
10.7.3 Design of the Digital Memory Element ....................... 563
10.7.4 A Static Memory Element ........................................ 567
10.8 Summary and Exercises......................................................... 568
chapter ii Energy and Power in Digital Circuits ..................... 595
11.1 Power and Energy Relations for a Simple RC Circuit.................. 595
11.2 Average Power in an RC Circuit ............................................. 597
11.2.1 Energy Dissipated During Interval T ......................... 599
11.2.2 Energy Dissipated During Interval Ti ......................... 601
11.2.3 Total Energy Dissipated........................................... 603
11.3 Power Dissipation in Logic Gates............................................ 604
11.3.1 Static Power Dissipation .......................................... 604
11.3.2 Total Power Dissipation .......................................... 605
11.4 NMOS Logic....................................................................... 611
11.5 CMOS Logic....................................................................... 611
11.5.1 CMOS Logic Gate Design ........................................ 616
11.6 Summary and Exercises......................................................... 618
chapter ii Transients in Second-Order Circuits ...................... 625
12.1 Undriven LC Circuit.............................................................. 627
12.2 Undriven, Series RLC Circuit.................................................. 640
12.2.1 Under-Damped Dynamics........................................ 644
12.2.2 Over-Damped Dynamics ......................................... 648
12.2.3 Criticaüy-Damped Dynamics.................................... 649
12.3 Stored Energy in Transient, Series RLC Circuit.......................... 651
12.4 Undriven, Parallel RLC Circuit................................................ 654
ECO 12.4.1 Under-Damped Dynamics ........................................ 654
ECO 12.4.2 Over-Damped Dynamics ......................................... 654
ECO 12.4.3 Critically-Damped Dynamics .................................... 654
12.5 Driven, Series RLC Circuit ..................................................... 654
12.5.1 StepResponse ........................................................ 657
12.5.2 Impulse Response ................................................... 661
12.6 Driven, Parallel RLC Circuit.................................................... 678
ECO 12.6.1 StepResponse ........................................................ 678
ECO 12.6.2 Impulse Response ................................................... 678
12.7 Intuitive Analysis of Second-Order Circuits............................... 678
12.8 Two-Capacitor or Two-Inductor Circuits................................. 684
12.9 State-Variable Method........................................................... 689
12.10 State-Space Analysis.............................................................. 691
ECO 12.10.1 Numerical Solution ................................................. 691
12.11 Higher-Order Circuits ........................................................... 691
12.12 Summary and Exercises......................................................... 692
chapter 13 Sinusoidal Steady State: Impedance and
Frequency Response ...................................................................... 703
13.1 Introduction ........................................................................ 703
13.2 Analysis Using Complex Exponential Drive.............................. 706
13.2.1 Homogeneous Solution ........................................... 706
13.2.2 Particular Solution .................................................. 707
13.2.3 Complete Solution .................................................. 710
13.2.4 Sinusoidal Steady-State Response .............................. 710
13.3 The Boxes: Impedance.......................................................... 712
13.3.1 Example: Series RL Circuit....................................... 718
13.3.2 Example: Another RC Circuit ................................... 722
13.3.3 Example: RC Circuit with Two Capacitors ................ 724
13.3.4 Example: Analysis ofSmall Signal Amplifier with
Capaätive Load ..................................................... 729
13.4 Frequency Response: Magnitude and Phase versus Frequency...... 731
13.4.1 Frequency Response of Capaätors, Inductors,
and Resistors ......................................................... 732
13.4.2 Intuitively Sketching the Frequency Response ofRC and
RL Circuits............................................................ 737
ECO 13.4.3 The Bode Plot: Sketching the Frequency Response of
General Functions................................................... 741
13.5 Filters ................................................................................. 742
13.5.1 Filter Design Example: Crossover Network.................. 744
13.5.2 Decoupling Amplifier Stages ..................................... 746
13.6 Time Domain versus Frequency Domain Analysis using
Voltage-Divider Example....................................................... 751
13.6.1 Frequency Domain Analysis ..................................... 751
13.6.2 Time Domain Analysis ............................................ 754
13.6.3 Comparing Time Domain and Frequency Domain
Analyses................................................................ 756
13.7 Power and Energy in an Impedance......................................... 757
13.7.1 Arbitrary Impedance ............................................... 758
13.7.2 Pure Resistance ....................................................... 760
13.7.3 Pure Reactance ....................................................... 761
13.7.4 Example: Power in an RC Circuit.............................. 763
13.8 Summary and Exercises......................................................... 765
chapter 14 Sinusoidal Steady State: Resonance ....................... 777
14.1 Parallel RLC, Sinusoidal Response........................................... 777
14.1.1 Homogeneous Solution ........................................... 778
14.1.2 Particular Solution .................................................. 780
14.1.3 Total Solution for the Parallel RLC Circuit.................. 781
14.2 Frequency Response for Resonant Systems............................... 783
14.2.1 The Resonant Region of the Frequency Response .......... 792
_____ 14.3 Series RLC........................................................................... 801
ECO 14.4 The Bode Hot for Resonant Functions..................................... 808
14.5 Filter Examples..................................................................... 808
14.5.1 Band-pass Filter...................................................... 809
14.5.2 Low-pass Filter ...................................................... 810
14.53 High-pass Filter ...................................................... 814
14.5.4 NotchFilter ........................................................... 815
14.6 Stored Energy in a Resonant Circuit........................................ 816
14.7 Summary and Exercises......................................................... 821
chapter 15 The Operational Amplifier Abstraction .................. 837
15.1 Introduction ........................................................................ 837
15.1.1 Historical Perspective ............................................... 838
15.2 Device Properties of the Operational Amplifier.......................... 839
15.2.1 The Op Amp Model ............................................... 839
15.3 Simple Op Amp Circuits........................................................ 842
15.3.1 The Non-lnverting Op Amp..................................... 842
15.3.2 ASecondExample: TheInvertingConnection ............. 844
15.33 Sensäivity.............................................................. 846
15.3.4 A Special Case: The Voltage Foüower......................... 847
153S An Additional Constraint: v+ - v~ ^ 0..................... 848
15.4 Input and Output Resistances................................................. 849
15.4.1 Output Resistance, InvertmgOpAmp ........................ 849
15.4.2 Input Resistance, Inverting Connection ....................... 851
15.4.3 Input and Output R For Non-Inverting Op Amp ......... 853
ECO 15.4.4 Generalization on Input Resistance............................. 855
15.4.5 Example: Op Amp Current Source ............................ 855
15.5 Additional Examples ............................................................. 857
15.5.1 Adder................................................................... 858
15.5.2 Subtracter.............................................................. 858
15.6 Op Amp RC Circuits ............................................................ 859
15.6.1 Op Amp Integrator................................................. 859
15.6.2 Op Amp Differentiator ............................................ 862
15.6.3 An RC Active Filter................................................. 863
15.6.4 The RC Active Filter?Impedance Analysis ................. 865
ECO 15.6.5 Sallen-Key Filter ..................................................... 866
15.7 Op Amp in Saturation........................................................... 866
15.7.1 Op Amp Integrator in Saturation ............................... 867
15.8 Positive Feedback.................................................................. 869
15.8.1 RCOscillator......................................................... 869
15.9 Two-Ports........................................................................... 872
15.10 Summary and Exercises......................................................... 873
chapter
i 6 Diodes .............................................................. 905
16.1 Introduction ........................................................................ 905
16.2 Semiconductor Diode Characteristics....................................... 905
16.3 Analysis of Diode Circuits...................................................... 908
16.3.1 Method of Assumed States........................................ 908
16.4 Nonlinear Analysis with RL and RC........................................ 912
16.4.1 PeakDetector......................................................... 912
16.4.2 Example: Clamping Circuit ...................................... 915
ECO 16.4.3 ASwitched Power Supply using a Diode ..................... 918
ECO 16.5 Additional Examples............................................................. 918
ECO 16.5.1 Piecewise Linear Example: Clipping Circuit................. 918
ECO 16.5.2 Exponentiation Circuit ............................................ 918
ECO 16.5.3 Piecewise Linear Example: Limiter............................. 918
OSO 16.5.4 Example: Full-Wave Diode Bridge............................. 918
ECO 16.5.5 Incremental Example: Zener-Diode Regulator.............. 918
ECO 16.5.6 Incremental Example: Diode Attenuator ..................... 918
16.6 Summary and Exercises......................................................... 919
appendix a Maxwell s Equations and the Lumped Matter
Discipline ..................................................................................... 927
A.1 The Lumped Matter Discipline............................................... 927
A.1.1 The First Constraintof the Lumped Matter Disäpline .... 927
A.1.2 The Second Constraint ofthe Lumped Matter
Disäpline .............................................................. 930
A. 1.3 The Third Constraint of the Lumped Matter
Disäpline .............................................................. 932
A.1.4 The Lumped Matter Discipline Applied to Circuits........ 933
A.2 Deriving Kirchhoffs Laws...................................................... 934
A3 Deriving the Resistance ofaPieceof Material............................ 936
appendix b Trigonometrie Functions and Identities .................. 941
B.l Negative Arguments............................................................. 941
B.2 Phase-Shifted Arguments ....................................................... 942
B.3 Sum and Difference Arguments .............................................. 942
B.4 Products.............................................................................. 943
B.5 Half-Angle and Twice-Angle Arguments.................................. 943
B.6 Squares............................................................................... 943
B.7 Miscellaneous ...................................................................... 943
B.8 Taylor Series Expansions ....................................................... 944
B.9 Relations to e e .................................................................... 944
appendix c ComplexNumbers ............................................. 947
C.l Magnitude and Phase............................................................ 947
C.2 Polar Representation............................................................. 948
C.3 Addition and Subtraction....................................................... 949
C.4 Multiplication and Division.................................................... 949
C.5 Complex Conjugate.............................................................. 950
C.6 Propertiesofe 0 ................................................................... 951
C.7 Rotation.............................................................................. 951
C.8 Complex Functions of Time................................................... 952
C.9 Numerical Examples............................................................. 952
appendix d Solving Simultaneous Linear Equations ................. 957
Answers to Selected Problems ......................................................... 959
Figure Credits ............................................................................... 971
Index ........................................................................................... 973
|
| adam_txt |
Titel: Foundations of analog and digital electronic circuits
Autor: Agarwal, Anant
Jahr: 2005
CONTENTS
Material marked with IVH'l'.'l appears on the Internet (please see Preface for detail s).
Preface . xvü
Approach . xvü
Overview . xrx
Course Organization. xx
Adcnowledgments. xxi
CHAPTtR i The Circuit Abstraction . 3
1.1 The Power of Abstraction. 3
1.2 The Lumped Circuit Abstraction. 5
1.3 The Lumped Matter Disdpline. 9
1.4 Limitations of the Lumped Circuit Abstraction. 13
1.5 Practical Two-Terminal Elements. 15
1.5.1 Batteries. 16
1.5.2 Linear Resistors . 18
1.5.3 Associated Variables Convention . 25
1.6 Ideal Two-Terminal Elements . 29
1.6.1 Ideal Voltage Sources, Wires, and Resistors. 30
1.6.2 ElementLaws . 32
1.6.3 The Current Source ? Another Ideal Two- Terminal
Element. 33
1.7 Modeling Physical Elements. 36
1.8 Signal Representation. 40
1.8.1 Analog Signals . 41
1.8.2 Digital Signals?Value Discretization. 43
1.9 Summary and Exercises. 46
chapter z ResistiveNetworks . 53
2.1 Terminobgy. 54
2.2 Kirchhofs Laws. 55
2.2.1 KCL . 56
2.2.2 KVL . 60
2.3 Circuit Analysis: Basic Method . 66
2.3.1 Single-Resistor Circuits . 67
232 Quick Intuitive Analysis of Single-Resistor Circuits. 70
2.3.3 Energy Conservation. 71
2.3.4 Voltage and Current Dividers . 73
2.3.5 A More Complex Circuit . 84
2.4 Intuitive Method of Circuit Analysis: Series and
Parallel Sirnplification. 89
2.5 More Circuit Examples. 95
2.6 Dependent Sources and the Control Concept. 98
2.6.1 Circuits with Dependent Sources . 102
EZZQ 2.7 A Formulation Suitable for a Computer Solution . 107
2.8 Summary and Exercises. 108
chapter 3 Network Theorems . 119
3.1 Introduction . 119
3.2 The Node Voltage. 119
3.3 The Node Method. 125
3.3.1 Node Method: A Second Example . 130
3.3.2 Floating Independent Voltage Sources. 135
3.3.3 Dependent Sources and the Node Method . 139
maHiÄ 3.3.4 The Conductance and Source Matrices . 145
ESM 3.4 Loop Method. 145
3.5 Superposition. 145
3.5.1 Superposition Rules for Dependent Sources. 153
3.6 Thevenin's Theorem and Norton's Theorem. 157
3.6.1 The Thevenin Equivalent Network. 157
3.6.2 The Norton Equivalent Network . 167
3.6.3 More Examples . 171
3.7 Summary and Exercises. 177
chapter 4 Analysis of Nonlinear Circuits . 193
4.1 Introduction to Nonlinear Elements . 193
4.2 Analytical Solutions. 197
4.3 Graphical Analysis. 203
4.4 Piecewise Linear Analysis. 206
CEO 4.4.1 Improved Piecewise Linear Models for Nonlinear
Elements. 214
4.5 Incremental Analysis. 214
4.6 Summary and Exercises. 229
chapter 5 The Digital Abstraction . 243
5.1 Voltage Levels and the Stade Discipline. 245
5.2 Boolean Logic. 256
5.3 Combinational Gates . 258
5.4 Standard Sum-of-Products Representation. 261
5.5 Simplifying Logic Expressions. 262
5.6 Number Representation. 267
5.7 Summary and Exercises. 274
chapter 6 The MOSFET Switch . 285
6.1 The Switch. 285
6.2 Logic Functions Using Switches. 288
6.3 The MOSFET Device and Its S Model. 288
6.4 MOSFET Switch Implementation of Logic Gates . 291
6.5 Static Analysis Using the S Model . 296
6.6 The SR Model of the MOSFET. 300
6.7 Physical Structure of the MOSFET. 301
6.8 Static Analysis Using the SR Model. 306
6.8.1 Static Analysis ofthe NAND Gate Using the
SRModel . 311
6.9 Signal Restoration, Gain, and Nonlinearity . 314
6.9.1 Signal Restoration and Gain . 314
6.9.2 Signal Restoration and Nonlinearity . 317
6.9.3 Buffer Transfer Characteristics and the Static
Disäpline . 318
6.9.4 Inverter Transfer Characteristics and the Static
Disäpline . 319
6.10 Power Consumption in Logic Gates. 320
6.11 Active Pullups . 321
6.12 Summary and Exercises. 322
chapter 7 The MOSFET Amplifier. 331
7.1 Signal Amplification. 331
7.2 Review of Dependent Sources . 332
7.3 Actual MOSFET Characteristics. 335
7.4 The Switch-Current Source (SCS) MOSFET Model . 340
7.5 The MOSFET Amplifier. 344
7.5.1 Biasing the MOSFET Amplifier. 349
7.5.2 The Amplifier Abstraction and the Saturation
Disäpline . 352
7.6 Large-Signal Analysis of the MOSFET Amplifier . 353
7.6.1 vftt Versus vcxjt in the Saturation Region . 353
7.6.2 Valid Input and Output Voltage Ranges . 356
7.6.3 Alternative Metlxxl for Valid Input and Output
Voltage Ranges. 363
7.7 Operating Point Selection . 365
7.8 Switch Unified (SU) MOSFET Model. 386
7.9 Summary and Exercises. 389
chapter 8 The Small-Signal Model. 405
8.1 Overview of the Nonlinear MOSFET Amplifier. 405
8.2 The Small-Signal Model. 405
8.2.1 Small-Signal Circuit Representation . 413
8.2.2 Small-Signal Circuit for the MOSFET Amplifier . 418
8.2.3 Selecting an Operating Point. 420
8.2.4 Input and Output Resistance, Current and
Power Gain . 423
8.3 Summary and Exercises. 447
chapter 9 Energy Storage Elements . 457
9.1 Constitutive Laws. 461
9.1.1 Capacitors . 461
9.1.2 Inductors. 466
9.2 Series and Parallel Connections . 470
9.2.1 Capacitors . 471
9.2.2 Inductors. 472
9.3 Special Examples. 473
9.3.1 MOSFET Gate Capacitance . 473
9.3.2 Wiring Loop Inductance . 476
9.3.3 IC Wiring Capacitance and Inductance . 477
9.3.4 Transformers . 478
9.4 Simple Circuit Examples. 480
ESM 9.4.1 Sinusoidal Inputs . 482
9.4.2 Steplnputs . 482
9.4.3 Impulse Inputs . 488
EXS3 9.4.4 RoleReversal . 489
9.5 Energy, Charge, and Flux Conservation . 489
9.6 Summary and Exercises. 492
chapter io First-Order Transients in Linear Electrical
Networks . 503
10.1 Analysis ofRC Circuits. 504
10.1.1 Parallel RC Circuit, Step Input . 504
10.1.2 RC Discharge Transient . 509
10.1.3 Series RC Circuit, Step Input. 511
10.1.4 Series RC Circuit, Square-Wave Input. 515
10.2 Analysis of RL Circuits. 517
10.2.1 Series RL Circuit, Step Input . 517
10.3 Intuitive Analysis. 520
10.4 Propagation Delay and the Digital Abstraction . 525
10.4.1 Definitionsof Propagation Delays . 527
10.4.2 Computing fa fromthe SRC MOSFET Model . 529
10.5 State and State Variables. 538
10.5.1 The Concept of State. 538
10.5.2 Computer Analysis Using the State Equation . 540
10.5.3 Zero-Input and Zero-State Response. 541
VMM 10.5.4 Solution by Integrating Factors . 544
10.6 Additional Examples. 545
10.6.1 Effect ofWire Inductance in Digital Circuits . 545
10.6.2 Ramp Inputs and Linearity . 545
10.6.3 Response ofan RC Circuit to Short Pulses and the
Impulse Response . 550
10.6.4 Intuitive Method for the Impulse Response. 553
10.6.5 Clock Signals and Clock Fanout . 554
UX!0 10.6.6 RC Response to Decaying Exponential . 558
10.6.7 Series RL Circuit with Sine-Wave Input . 558
10.7 Digital Memory. 561
10.7.1 The Concept of Digital State . 561
10.7.2 An Ahstract Digital Memory Element . 562
10.7.3 Design of the Digital Memory Element . 563
10.7.4 A Static Memory Element . 567
10.8 Summary and Exercises. 568
chapter ii Energy and Power in Digital Circuits . 595
11.1 Power and Energy Relations for a Simple RC Circuit. 595
11.2 Average Power in an RC Circuit . 597
11.2.1 Energy Dissipated During Interval T\ . 599
11.2.2 Energy Dissipated During Interval Ti . 601
11.2.3 Total Energy Dissipated. 603
11.3 Power Dissipation in Logic Gates. 604
11.3.1 Static Power Dissipation . 604
11.3.2 Total Power Dissipation . 605
11.4 NMOS Logic. 611
11.5 CMOS Logic. 611
11.5.1 CMOS Logic Gate Design . 616
11.6 Summary and Exercises. 618
chapter ii Transients in Second-Order Circuits . 625
12.1 Undriven LC Circuit. 627
12.2 Undriven, Series RLC Circuit. 640
12.2.1 Under-Damped Dynamics. 644
12.2.2 Over-Damped Dynamics . 648
12.2.3 Criticaüy-Damped Dynamics. 649
12.3 Stored Energy in Transient, Series RLC Circuit. 651
12.4 Undriven, Parallel RLC Circuit. 654
ECO 12.4.1 Under-Damped Dynamics . 654
ECO 12.4.2 Over-Damped Dynamics . 654
ECO 12.4.3 Critically-Damped Dynamics . 654
12.5 Driven, Series RLC Circuit . 654
12.5.1 StepResponse . 657
12.5.2 Impulse Response . 661
12.6 Driven, Parallel RLC Circuit. 678
ECO 12.6.1 StepResponse . 678
ECO 12.6.2 Impulse Response . 678
12.7 Intuitive Analysis of Second-Order Circuits. 678
12.8 Two-Capacitor or Two-Inductor Circuits. 684
12.9 State-Variable Method. 689
12.10 State-Space Analysis. 691
ECO 12.10.1 Numerical Solution . 691
12.11 Higher-Order Circuits . 691
12.12 Summary and Exercises. 692
chapter 13 Sinusoidal Steady State: Impedance and
Frequency Response . 703
13.1 Introduction . 703
13.2 Analysis Using Complex Exponential Drive. 706
13.2.1 Homogeneous Solution . 706
13.2.2 Particular Solution . 707
13.2.3 Complete Solution . 710
13.2.4 Sinusoidal Steady-State Response . 710
13.3 The Boxes: Impedance. 712
13.3.1 Example: Series RL Circuit. 718
13.3.2 Example: Another RC Circuit . 722
13.3.3 Example: RC Circuit with Two Capacitors . 724
13.3.4 Example: Analysis ofSmall Signal Amplifier with
Capaätive Load . 729
13.4 Frequency Response: Magnitude and Phase versus Frequency. 731
13.4.1 Frequency Response of Capaätors, Inductors,
and Resistors . 732
13.4.2 Intuitively Sketching the Frequency Response ofRC and
RL Circuits. 737
ECO 13.4.3 The Bode Plot: Sketching the Frequency Response of
General Functions. 741
13.5 Filters . 742
13.5.1 Filter Design Example: Crossover Network. 744
13.5.2 Decoupling Amplifier Stages . 746
13.6 Time Domain versus Frequency Domain Analysis using
Voltage-Divider Example. 751
13.6.1 Frequency Domain Analysis . 751
13.6.2 Time Domain Analysis . 754
13.6.3 Comparing Time Domain and Frequency Domain
Analyses. 756
13.7 Power and Energy in an Impedance. 757
13.7.1 Arbitrary Impedance . 758
13.7.2 Pure Resistance . 760
13.7.3 Pure Reactance . 761
13.7.4 Example: Power in an RC Circuit. 763
13.8 Summary and Exercises. 765
chapter 14 Sinusoidal Steady State: Resonance . 777
14.1 Parallel RLC, Sinusoidal Response. 777
14.1.1 Homogeneous Solution . 778
14.1.2 Particular Solution . 780
14.1.3 Total Solution for the Parallel RLC Circuit. 781
14.2 Frequency Response for Resonant Systems. 783
14.2.1 The Resonant Region of the Frequency Response . 792
_ 14.3 Series RLC. 801
ECO 14.4 The Bode Hot for Resonant Functions. 808
14.5 Filter Examples. 808
14.5.1 Band-pass Filter. 809
14.5.2 Low-pass Filter . 810
14.53 High-pass Filter . 814
14.5.4 NotchFilter . 815
14.6 Stored Energy in a Resonant Circuit. 816
14.7 Summary and Exercises. 821
chapter 15 The Operational Amplifier Abstraction . 837
15.1 Introduction . 837
15.1.1 Historical Perspective . 838
15.2 Device Properties of the Operational Amplifier. 839
15.2.1 The Op Amp Model . 839
15.3 Simple Op Amp Circuits. 842
15.3.1 The Non-lnverting Op Amp. 842
15.3.2 ASecondExample: TheInvertingConnection . 844
15.33 Sensäivity. 846
15.3.4 A Special Case: The Voltage Foüower. 847
153S An Additional Constraint: v+ - v~ ^ 0. 848
15.4 Input and Output Resistances. 849
15.4.1 Output Resistance, InvertmgOpAmp . 849
15.4.2 Input Resistance, Inverting Connection . 851
15.4.3 Input and Output R For Non-Inverting Op Amp . 853
ECO 15.4.4 Generalization on Input Resistance. 855
15.4.5 Example: Op Amp Current Source . 855
15.5 Additional Examples . 857
15.5.1 Adder. 858
15.5.2 Subtracter. 858
15.6 Op Amp RC Circuits . 859
15.6.1 Op Amp Integrator. 859
15.6.2 Op Amp Differentiator . 862
15.6.3 An RC Active Filter. 863
15.6.4 The RC Active Filter?Impedance Analysis . 865
ECO 15.6.5 Sallen-Key Filter . 866
15.7 Op Amp in Saturation. 866
15.7.1 Op Amp Integrator in Saturation . 867
15.8 Positive Feedback. 869
15.8.1 RCOscillator. 869
15.9 Two-Ports. 872
15.10 Summary and Exercises. 873
chapter
i 6 Diodes . 905
16.1 Introduction . 905
16.2 Semiconductor Diode Characteristics. 905
16.3 Analysis of Diode Circuits. 908
16.3.1 Method of Assumed States. 908
16.4 Nonlinear Analysis with RL and RC. 912
16.4.1 PeakDetector. 912
16.4.2 Example: Clamping Circuit . 915
ECO 16.4.3 ASwitched Power Supply using a Diode . 918
ECO 16.5 Additional Examples. 918
ECO 16.5.1 Piecewise Linear Example: Clipping Circuit. 918
ECO 16.5.2 Exponentiation Circuit . 918
ECO 16.5.3 Piecewise Linear Example: Limiter. 918
OSO 16.5.4 Example: Full-Wave Diode Bridge. 918
ECO 16.5.5 Incremental Example: Zener-Diode Regulator. 918
ECO 16.5.6 Incremental Example: Diode Attenuator . 918
16.6 Summary and Exercises. 919
appendix a Maxwell's Equations and the Lumped Matter
Discipline . 927
A.1 The Lumped Matter Discipline. 927
A.1.1 The First Constraintof the Lumped Matter Disäpline . 927
A.1.2 The Second Constraint ofthe Lumped Matter
Disäpline . 930
A. 1.3 The Third Constraint of the Lumped Matter
Disäpline . 932
A.1.4 The Lumped Matter Discipline Applied to Circuits. 933
A.2 Deriving Kirchhoffs Laws. 934
A3 Deriving the Resistance ofaPieceof Material. 936
appendix b Trigonometrie Functions and Identities . 941
B.l Negative Arguments. 941
B.2 Phase-Shifted Arguments . 942
B.3 Sum and Difference Arguments . 942
B.4 Products. 943
B.5 Half-Angle and Twice-Angle Arguments. 943
B.6 Squares. 943
B.7 Miscellaneous . 943
B.8 Taylor Series Expansions . 944
B.9 Relations to e'e . 944
appendix c ComplexNumbers . 947
C.l Magnitude and Phase. 947
C.2 Polar Representation. 948
C.3 Addition and Subtraction. 949
C.4 Multiplication and Division. 949
C.5 Complex Conjugate. 950
C.6 Propertiesofe'0 . 951
C.7 Rotation. 951
C.8 Complex Functions of Time. 952
C.9 Numerical Examples. 952
appendix d Solving Simultaneous Linear Equations . 957
Answers to Selected Problems . 959
Figure Credits . 971
Index . 973 |
| any_adam_object | 1 |
| any_adam_object_boolean | 1 |
| author | Agarwal, Anant |
| author_facet | Agarwal, Anant |
| author_role | aut |
| author_sort | Agarwal, Anant |
| author_variant | a a aa |
| building | Verbundindex |
| bvnumber | BV021233880 |
| callnumber-first | T - Technology |
| callnumber-label | TK7867 |
| callnumber-raw | TK7867 |
| callnumber-search | TK7867 |
| callnumber-sort | TK 47867 |
| callnumber-subject | TK - Electrical and Nuclear Engineering |
| classification_rvk | ZN 5400 |
| classification_tum | ELT 430f |
| ctrlnum | (OCoLC)60245509 (DE-599)BVBBV021233880 |
| dewey-full | 621.3815 |
| dewey-hundreds | 600 - Technology (Applied sciences) |
| dewey-ones | 621 - Applied physics |
| dewey-raw | 621.3815 |
| dewey-search | 621.3815 |
| dewey-sort | 3621.3815 |
| dewey-tens | 620 - Engineering and allied operations |
| discipline | Elektrotechnik Elektrotechnik / Elektronik / Nachrichtentechnik |
| discipline_str_mv | Elektrotechnik Elektrotechnik / Elektronik / Nachrichtentechnik |
| format | Book |
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| id | DE-604.BV021233880 |
| illustrated | Illustrated |
| index_date | 2024-07-02T13:29:11Z |
| indexdate | 2024-07-09T20:28:25Z |
| institution | BVB |
| isbn | 1558607358 9781558607354 |
| language | English |
| lccn | 2005047954 |
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| physical | XXIV, 984 S. Ill., graph. Darst. |
| publishDate | 2005 |
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| spelling | Agarwal, Anant Verfasser aut Foundations of analog and digital electronic circuits Anant Agarwal ; Jeffrey H. Lang Amsterdam [u.a.] Elsevier 2005 XXIV, 984 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier Includes bibliographical references and index Circuitos eletrônicos larpcal Circuits électroniques ram Electronic circuits Textbooks Elektronische Schaltung (DE-588)4113419-9 gnd rswk-swf Digitalschaltung (DE-588)4012295-5 gnd rswk-swf Digitaltechnik (DE-588)4012303-0 gnd rswk-swf Operationsverstärker (DE-588)4043590-8 gnd rswk-swf MOS-FET (DE-588)4207266-9 gnd rswk-swf Analogschaltung (DE-588)4122796-7 gnd rswk-swf (DE-588)4123623-3 Lehrbuch gnd-content Analogschaltung (DE-588)4122796-7 s Digitalschaltung (DE-588)4012295-5 s DE-604 Digitaltechnik (DE-588)4012303-0 s MOS-FET (DE-588)4207266-9 s Operationsverstärker (DE-588)4043590-8 s Elektronische Schaltung (DE-588)4113419-9 s Lang, Jeffrey Sonstige oth HBZ Datenaustausch application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=014276669&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
| spellingShingle | Agarwal, Anant Foundations of analog and digital electronic circuits Circuitos eletrônicos larpcal Circuits électroniques ram Electronic circuits Textbooks Elektronische Schaltung (DE-588)4113419-9 gnd Digitalschaltung (DE-588)4012295-5 gnd Digitaltechnik (DE-588)4012303-0 gnd Operationsverstärker (DE-588)4043590-8 gnd MOS-FET (DE-588)4207266-9 gnd Analogschaltung (DE-588)4122796-7 gnd |
| subject_GND | (DE-588)4113419-9 (DE-588)4012295-5 (DE-588)4012303-0 (DE-588)4043590-8 (DE-588)4207266-9 (DE-588)4122796-7 (DE-588)4123623-3 |
| title | Foundations of analog and digital electronic circuits |
| title_auth | Foundations of analog and digital electronic circuits |
| title_exact_search | Foundations of analog and digital electronic circuits |
| title_exact_search_txtP | Foundations of analog and digital electronic circuits |
| title_full | Foundations of analog and digital electronic circuits Anant Agarwal ; Jeffrey H. Lang |
| title_fullStr | Foundations of analog and digital electronic circuits Anant Agarwal ; Jeffrey H. Lang |
| title_full_unstemmed | Foundations of analog and digital electronic circuits Anant Agarwal ; Jeffrey H. Lang |
| title_short | Foundations of analog and digital electronic circuits |
| title_sort | foundations of analog and digital electronic circuits |
| topic | Circuitos eletrônicos larpcal Circuits électroniques ram Electronic circuits Textbooks Elektronische Schaltung (DE-588)4113419-9 gnd Digitalschaltung (DE-588)4012295-5 gnd Digitaltechnik (DE-588)4012303-0 gnd Operationsverstärker (DE-588)4043590-8 gnd MOS-FET (DE-588)4207266-9 gnd Analogschaltung (DE-588)4122796-7 gnd |
| topic_facet | Circuitos eletrônicos Circuits électroniques Electronic circuits Textbooks Elektronische Schaltung Digitalschaltung Digitaltechnik Operationsverstärker MOS-FET Analogschaltung Lehrbuch |
| url | http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=014276669&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
| work_keys_str_mv | AT agarwalanant foundationsofanaloganddigitalelectroniccircuits AT langjeffrey foundationsofanaloganddigitalelectroniccircuits |