Multi-voltage CMOS circuit design:
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Format: | Elektronisch E-Book |
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Sprache: | English |
Veröffentlicht: |
Chichester
Wiley
2006
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Online-Zugang: | FRO01 TUM01 Volltext Inhaltsverzeichnis |
Beschreibung: | 1 Online-Ressource |
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Datensatz im Suchindex
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adam_text | Contents
About the Authors xi
Preface xiii
Acknowledgments xv
Chapter 1 Introduction 1
1.1 Evolution of Integrated Circuits 3
1.2 Outline of the Book 14
Chapter 2 Sources of Power Consumption in CMOS ICs 19
2.1 Dynamic Switching Power 19
2.2 Leakage Power 22
2.2.1 Subthreshold Leakage Current 22
2.2.1.1 Short Channel Effects 23
2.2.1.2 Drain Induced Barrier Lowering 25
2.2.1.3 Characterization of Subthreshold Leakage Current 25
2.2.2 Gate Oxide Leakage Current 28
2.2.2.1 Effect of Technology Scaling on Gate Oxide Leakage 29
2.2.2.2 Characterization of Gate Oxide Leakage Current 32
2.2.2.3 Alternative Gate Dielectric Materials 38
2.3 Short Circuit Power 39
2.4 Static DC Power 43
Chapter 3 Supply and Threshold Voltage Scaling Techniques 45
3.1 Dynamic Supply Voltage Scaling 48
3.2 Multiple Supply Voltage CMOS 51
3.3 Threshold Voltage Scaling 54
3.3.1 Body Bias Techniques 58
3.3.1.1 Reverse Body Bias 58
3.3.1.2 Forward Body Bias 64
3.3.1.3 Bidirectional Body Bias 71
3.3.2 Multiple Threshold Voltage CMOS 74
3.4 Multiple Supply and Threshold Voltage CMOS 77
3.5 Dynamic Supply and Threshold Voltage Scaling 80
viii CONTENTS
3.6 Circuits with Multiple Voltage and Clock Domains 81
3.7 Summary 83
Chapter 4 Low Voltage Power Supplies 85
4.1 Linear DC DC Converters 87
4.2 Switched Capacitor DC DC Converters 90
4.3 Switching DC DC Converters 91
4.3.1 Operation of a Buck Converter 92
4.3.2 Power Reduction Techniques for Switching
DC DC Converters 95
4.4 Summary 95
Chapter 5 Buck Converters for On Chip Integration 99
5.1 Circuit Model of a Buck Converter 101
5.1.1 MOSFET Related Power Losses 101
5.1.2 Filter Inductor Related Power Losses 103
5.1.3 Filter Capacitor Related Power Losses 103
5.1.4 Total Power Consumption of a Buck Converter 104
5.2 Efficiency Analysis of a Buck Converter 104
5.2.1 Circuit Analysis for Global Maximum Efficiency 105
5.2.2 Circuit Analysis with Limited Filter Capacitance 108
5.2.3 Output Voltage Ripple Constraint 109
5.3 Simulation Results 109
5.4 Summary 112
Chapter 6 Low Voltage Swing Monolithic DC DC Conversion 115
6.1 Circuit Model of a Low Voltage Swing Buck Converter 116
6.1.1 MOSFET Power Dissipation 118
6.1.2 MOSFET Model 119
6.1.3 Filter Inductor Power Dissipation 120
6.2 Low Voltage Swing Buck Converter Analysis 121
6.2.1 Full Swing Circuit Analysis for Global Maximum Efficiency 121
6.2.2 Low Swing Circuit Analysis for Global Maximum Efficiency 123
6.3 Summary 126
Chapter 7 High Input Voltage Step Down DC DC Converters 127
7.1 Cascode Bridge Circuits 129
7.1.1 Cascode Bridge Circuit for Input Voltages up to 2Fmax 129
7.1.2 Cascode Bridge Circuit for Input Voltages up to 3 Fmax 130
7.1.3 Cascode Bridge Circuit for Input Voltages up to 4 Vmax 132
7.2 High Input Voltage Monolithic Switching DC DC Converters 133
7.2.1 Operation of Cascode DC DC Converters 133
7.2.2 Efficiency Characteristics of DC DC Converters Operating at
Input Voltages up to 2Fmax 136
7.2.3 Efficiency Characteristics of DC DC Converters Operating at
Input Voltages up to 3 Fmax 137
7.3 Summary 138
CONTENTS ix
Chapter 8 Signal Transfer in ICs with Multiple Supply Voltages 139
8.1 A High Speed and Low Power Voltage Interface Circuit 140
8.2 Voltage Interface Circuit Simulation Results 141
8.3 Experimental Results 144
8.4 Summary 146
Chapter 9 Domino Logic with Variable Threshold Voltage Keeper 147
9.1 Standard Domino (SD) Logic Circuits 148
9.1.1 Operation of Standard Domino Logic Circuits 148
9.1.2 Noise Immunity, Delay, and Energy Tradeoffs 150
9.2 Domino Logic with Variable Threshold Voltage Keeper (DVTVK) 153
9.2.1 Variable Threshold Voltage Keeper 153
9.2.2 Dynamic Body Bias Generator 155
9.3 Simulation Results 156
9.3.1 Multiple Output Domino Carry Generator with Variable
Threshold Voltage Keeper 156
9.3.1.1 Improved Delay and Power Characteristics
with Comparable Noise Immunity 158
9.3.1.2 Improved Noise Immunity with Comparable
Delay or Power Characteristics 160
9.3.2 Clock Delayed Domino Logic with Variable Threshold
Voltage Keeper 161
9.3.3 Energy Overhead of the Dynamic Body Bias
Generator 163
9.4 Domino Logic with Forward and Reverse Body Biased Keeper 164
9.4.1 Clock Delayed Domino Logic with Forward and
Reverse Body Biased Keeper 165
9.4.2 Technology Scaling Characteristics of the Reverse and
Forward Body Bias Techniques Applied to a
Keeper Transistor 168
9.5 Summary 169
Chapter 10 Subthreshold Leakage Current Characteristics of
Dynamic Circuits 171
10.1 State Dependent Subthreshold Leakage Current Characteristics 172
10.2 Noise Immunity 177
10.3 Power and Delay Characteristics in the Active Mode 180
10.4 Dual Threshold Voltage CMOS Technology 182
10.5 Summary 186
Chapter 11 Sleep Switch Dual Threshold Voltage Domino Logic 187
11.1 Existing Sleep Mode Circuit Techniques 188
11.2 Dual Threshold Voltage Domino Logic Employing Sleep Switches 190
11.3 Simulation Results 191
11.3.1 Subthreshold Leakage Energy Reduction 193
11.3.2 Stack Effect in Domino Logic Circuits 194
x CONTENTS
11.3.3 Delay and Power Reduction in the Active Mode 197
11.3.4 Sleep/Wake Up Delay and Energy Overhead 197
11.4 Noise Immunity Compensation 200
11.5 Summary 204
Chapter 12 Conclusions 205
Bibliography 211
Index 221
|
adam_txt |
Contents
About the Authors xi
Preface xiii
Acknowledgments xv
Chapter 1 Introduction 1
1.1 Evolution of Integrated Circuits 3
1.2 Outline of the Book 14
Chapter 2 Sources of Power Consumption in CMOS ICs 19
2.1 Dynamic Switching Power 19
2.2 Leakage Power 22
2.2.1 Subthreshold Leakage Current 22
2.2.1.1 Short Channel Effects 23
2.2.1.2 Drain Induced Barrier Lowering 25
2.2.1.3 Characterization of Subthreshold Leakage Current 25
2.2.2 Gate Oxide Leakage Current 28
2.2.2.1 Effect of Technology Scaling on Gate Oxide Leakage 29
2.2.2.2 Characterization of Gate Oxide Leakage Current 32
2.2.2.3 Alternative Gate Dielectric Materials 38
2.3 Short Circuit Power 39
2.4 Static DC Power 43
Chapter 3 Supply and Threshold Voltage Scaling Techniques 45
3.1 Dynamic Supply Voltage Scaling 48
3.2 Multiple Supply Voltage CMOS 51
3.3 Threshold Voltage Scaling 54
3.3.1 Body Bias Techniques 58
3.3.1.1 Reverse Body Bias 58
3.3.1.2 Forward Body Bias 64
3.3.1.3 Bidirectional Body Bias 71
3.3.2 Multiple Threshold Voltage CMOS 74
3.4 Multiple Supply and Threshold Voltage CMOS 77
3.5 Dynamic Supply and Threshold Voltage Scaling 80
viii CONTENTS
3.6 Circuits with Multiple Voltage and Clock Domains 81
3.7 Summary 83
Chapter 4 Low Voltage Power Supplies 85
4.1 Linear DC DC Converters 87
4.2 Switched Capacitor DC DC Converters 90
4.3 Switching DC DC Converters 91
4.3.1 Operation of a Buck Converter 92
4.3.2 Power Reduction Techniques for Switching
DC DC Converters 95
4.4 Summary 95
Chapter 5 Buck Converters for On Chip Integration 99
5.1 Circuit Model of a Buck Converter 101
5.1.1 MOSFET Related Power Losses 101
5.1.2 Filter Inductor Related Power Losses 103
5.1.3 Filter Capacitor Related Power Losses 103
5.1.4 Total Power Consumption of a Buck Converter 104
5.2 Efficiency Analysis of a Buck Converter 104
5.2.1 Circuit Analysis for Global Maximum Efficiency 105
5.2.2 Circuit Analysis with Limited Filter Capacitance 108
5.2.3 Output Voltage Ripple Constraint 109
5.3 Simulation Results 109
5.4 Summary 112
Chapter 6 Low Voltage Swing Monolithic DC DC Conversion 115
6.1 Circuit Model of a Low Voltage Swing Buck Converter 116
6.1.1 MOSFET Power Dissipation 118
6.1.2 MOSFET Model 119
6.1.3 Filter Inductor Power Dissipation 120
6.2 Low Voltage Swing Buck Converter Analysis 121
6.2.1 Full Swing Circuit Analysis for Global Maximum Efficiency 121
6.2.2 Low Swing Circuit Analysis for Global Maximum Efficiency 123
6.3 Summary 126
Chapter 7 High Input Voltage Step Down DC DC Converters 127
7.1 Cascode Bridge Circuits 129
7.1.1 Cascode Bridge Circuit for Input Voltages up to 2Fmax 129
7.1.2 Cascode Bridge Circuit for Input Voltages up to 3 Fmax 130
7.1.3 Cascode Bridge Circuit for Input Voltages up to 4 Vmax 132
7.2 High Input Voltage Monolithic Switching DC DC Converters 133
7.2.1 Operation of Cascode DC DC Converters 133
7.2.2 Efficiency Characteristics of DC DC Converters Operating at
Input Voltages up to 2Fmax 136
7.2.3 Efficiency Characteristics of DC DC Converters Operating at
Input Voltages up to 3 Fmax 137
7.3 Summary 138
CONTENTS ix
Chapter 8 Signal Transfer in ICs with Multiple Supply Voltages 139
8.1 A High Speed and Low Power Voltage Interface Circuit 140
8.2 Voltage Interface Circuit Simulation Results 141
8.3 Experimental Results 144
8.4 Summary 146
Chapter 9 Domino Logic with Variable Threshold Voltage Keeper 147
9.1 Standard Domino (SD) Logic Circuits 148
9.1.1 Operation of Standard Domino Logic Circuits 148
9.1.2 Noise Immunity, Delay, and Energy Tradeoffs 150
9.2 Domino Logic with Variable Threshold Voltage Keeper (DVTVK) 153
9.2.1 Variable Threshold Voltage Keeper 153
9.2.2 Dynamic Body Bias Generator 155
9.3 Simulation Results 156
9.3.1 Multiple Output Domino Carry Generator with Variable
Threshold Voltage Keeper 156
9.3.1.1 Improved Delay and Power Characteristics
with Comparable Noise Immunity 158
9.3.1.2 Improved Noise Immunity with Comparable
Delay or Power Characteristics 160
9.3.2 Clock Delayed Domino Logic with Variable Threshold
Voltage Keeper 161
9.3.3 Energy Overhead of the Dynamic Body Bias
Generator 163
9.4 Domino Logic with Forward and Reverse Body Biased Keeper 164
9.4.1 Clock Delayed Domino Logic with Forward and
Reverse Body Biased Keeper 165
9.4.2 Technology Scaling Characteristics of the Reverse and
Forward Body Bias Techniques Applied to a
Keeper Transistor 168
9.5 Summary 169
Chapter 10 Subthreshold Leakage Current Characteristics of
Dynamic Circuits 171
10.1 State Dependent Subthreshold Leakage Current Characteristics 172
10.2 Noise Immunity 177
10.3 Power and Delay Characteristics in the Active Mode 180
10.4 Dual Threshold Voltage CMOS Technology 182
10.5 Summary 186
Chapter 11 Sleep Switch Dual Threshold Voltage Domino Logic 187
11.1 Existing Sleep Mode Circuit Techniques 188
11.2 Dual Threshold Voltage Domino Logic Employing Sleep Switches 190
11.3 Simulation Results 191
11.3.1 Subthreshold Leakage Energy Reduction 193
11.3.2 Stack Effect in Domino Logic Circuits 194
x CONTENTS
11.3.3 Delay and Power Reduction in the Active Mode 197
11.3.4 Sleep/Wake Up Delay and Energy Overhead 197
11.4 Noise Immunity Compensation 200
11.5 Summary 204
Chapter 12 Conclusions 205
Bibliography 211
Index 221 |
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spelling | Multi-voltage CMOS circuit design Volkan Kursun; Eby G. Friedman Chichester Wiley 2006 1 Online-Ressource txt rdacontent c rdamedia cr rdacarrier Metal oxide semiconductors, Complementary CMOS-Schaltung (DE-588)4148111-2 gnd rswk-swf CMOS-Schaltung (DE-588)4148111-2 s DE-604 Kursun, Volkan Sonstige oth Friedman, Eby G. Sonstige oth https://onlinelibrary.wiley.com/doi/book/10.1002/0470033371 Volltext HBZ Datenaustausch application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=015047636&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
spellingShingle | Multi-voltage CMOS circuit design Metal oxide semiconductors, Complementary CMOS-Schaltung (DE-588)4148111-2 gnd |
subject_GND | (DE-588)4148111-2 |
title | Multi-voltage CMOS circuit design |
title_auth | Multi-voltage CMOS circuit design |
title_exact_search | Multi-voltage CMOS circuit design |
title_exact_search_txtP | Multi-voltage CMOS circuit design |
title_full | Multi-voltage CMOS circuit design Volkan Kursun; Eby G. Friedman |
title_fullStr | Multi-voltage CMOS circuit design Volkan Kursun; Eby G. Friedman |
title_full_unstemmed | Multi-voltage CMOS circuit design Volkan Kursun; Eby G. Friedman |
title_short | Multi-voltage CMOS circuit design |
title_sort | multi voltage cmos circuit design |
topic | Metal oxide semiconductors, Complementary CMOS-Schaltung (DE-588)4148111-2 gnd |
topic_facet | Metal oxide semiconductors, Complementary CMOS-Schaltung |
url | https://onlinelibrary.wiley.com/doi/book/10.1002/0470033371 http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=015047636&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
work_keys_str_mv | AT kursunvolkan multivoltagecmoscircuitdesign AT friedmanebyg multivoltagecmoscircuitdesign |