Produktbild: MOS Switched-Capacitor and Continuous-Time Integrated Circuits and Systems
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MOS Switched-Capacitor and Continuous-Time Integrated Circuits and Systems Analysis and Design

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Beschreibung

Produktdetails

Einband

Taschenbuch

Erscheinungsdatum

05.12.2011

Verlag

Springer Berlin

Seitenzahl

631

Maße (L/B/H)

24,4/17/3,5 cm

Gewicht

1107 g

Auflage

Softcover reprint of the original 1st ed. 1989

Sprache

Englisch

ISBN

978-3-642-83679-4

Beschreibung

Produktdetails

Einband

Taschenbuch

Erscheinungsdatum

05.12.2011

Verlag

Springer Berlin

Seitenzahl

631

Maße (L/B/H)

24,4/17/3,5 cm

Gewicht

1107 g

Auflage

Softcover reprint of the original 1st ed. 1989

Sprache

Englisch

ISBN

978-3-642-83679-4

Herstelleradresse

Springer-Verlag GmbH
Tiergartenstr. 17
69121 Heidelberg
DE

Email: ProductSafety@springernature.com

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  • Produktbild: MOS Switched-Capacitor and Continuous-Time Integrated Circuits and Systems
  • 1. Fundamentals of Sampled-Data Systems.- 1.1. Introduction.- 1.2. Sampled-Data Signals and Systems and Their Representations.- 1.2.1. Classification of Signals.- 1.2.2. Systems.- 1.3. Review of Laplace Transforms.- 1.4. Review of the Theory of z-Transforms and Their use in the Analysis of Sampled-Data Systems.- 1.4.1. Definition and Properties.- 1.4.2. Evaluation of the Inverse z-Transform.- 1.4.3. Z-Transforms and Difference Equations.- 1.4.4. Systems with Non-Synchronous Sampling: the Modified (Non-Standard) z-Transform.- 1.5. Representation of Sampled-Data Systems by Block-Diagrams and Signal-Flow Graphs.- 1.6. Review of Fourier Transforms and Frequency Responses.- 1.6.1. Frequency Response of Sampled-Data Systems, Discrete-Time Fourier Transform.- 1.6.2. Properties of DTFT.- 1.6.3. Discrete Fourier Transform.- 1.6.4. The Relationship Between Time-Continuous Sampled and Discrete-Time Signals in the Frequency- and Time-Domain.- 1.6.5. The Sampling Theorem.- 1.7. Reconstruction of Signals.- 1.7.1. Zero-Order Sample- and-Hold Element.- 1.7.2. First-Order Sample- and-Hold Element with Correction.- 1.7.3. The Piecewise Linear Interpolator.- 1.8. Mapping Between the s-Plane and the z-Plane.- 1.8.1. Poles and Zeros; Relations Between Signals and Location of Poles and Zeros.- 1.8.2. Sampled-Data Simulation of Analog Systems: s- z-Transformation.- References and Sources for Further Reading.- 2. MOS Devices for Linear Analog Integrated Circuits.- 2.1. Introduction.- 2.2. The MOS Transistor Operation and Modeling.- 2.2.1. Physical Structure and Operation Principles.- 2.2.2. DC Characteristics of MOS Transistors — Large Signal Modeling.- 2.2.3. Body Effect.- 2.2.4. Channel Length Modulation.- 2.2.5. Effective Mobility Reduction and Series Resistance Effect.- 2.2.6. MOSFET Model in the Subthreshold (Weak Inversion) Region.- 2.2.7. A Compact Model of MOS Transistors with Small Geometry.- 2.2.8. A Small Signal Equivalent Model of MOS Transistors.- 2.3. Noise in MOS Transistors.- 2.4. MOS Switches.- 2.5. MOS Capacitors.- 2.6. Basic MOS Analog Subcircuits.- 2.6.1. MOS Bias Voltage Circuits.- 2.6.2. MOS Current Sources.- 2.6.3. Inverter and Cascode Amplifying Stages.- 2.6.4. Composite MOS Transistor Operating in Saturation.- 2.7. CMOS Voltage-to-Current Transducers.- 2.8. MOS Operational Amplifiers: Basic Parameters and Properties.- 2.9. CMOS Operational Amplifier Architecture.- 2.9.1. Differential Gain Stages.- 2.9.2. CMOS Two-Stage Operational Amplifiers.- 2.9.3. Single-Stage Operational Amplifiers.- Reference and Sources for Further Reading.- 3. Basic Properties and Systematic Analysis of Switched-Capacitor Networks.- 3.1. Introduction.- 3.2. Brief History and Recent Developments in SC Filters.- 3.3. Description and Representation of SC Circuits in the Time Domain.- 3.4. Systematic Analysis of SC Networks in the z-Domain.- 3.4.1. Models of Bi-Phase Switched Capacitors in the z-Domain.- 3.4.2. Nodal Admittance Matrix Approach for the Analysis of SC Networks.- 3.4.3. Representation of SC Networks by Signal-Flow Graphs.- 3.4.4. Some Illustrative Examples.- 3.4.5. Analysis of Multiphase SC Networks.- 3.5. Analysis of SC Networks in the Frequency Domain.- 3.6. Computer-Aided Analysis (Simulation) of SC Networks.- References and Sources for Futher Reading.- 4. Basic Building Blocks of Linear SC Networks.- 4.1. Introduction.- 4.2. Sample- and-Hold Circuits.- 4.3. SC Analog Delay Circuits.- 4.4. SC Voltage-Gain Amplifiers, Summing Amplifiers and Instrumentation Amplifiers.- 4.5. SC Integrators.- 4.5.1. Standard SC Integrators.- 4.5.2. SC Integrators with Improved Performance for High Frequency Applications.- 4.5.3. Reduction of Capacitances Ratios in SC Integrators.- 4.5.4. Simulation of SC Integrators and Other Building Blocks Using Unit Elements.- 4.6. SC Differentiators.- 4.7. SC First-Order Building Blocks.- 4.8. SC Decimators and Interpolators.- 4.9. Digitally Programmable Capacitors.- References and Sources for Further Reading.- 5. Synthesis and Design of SC Filters.- 5.1. Introduction.- 5.2. Review of Types of Filters.- 5.3. Biquadratic Filter Synthesis and Design — Second Order SC Sections.- 5.3.1. Basic Properties of Biquads.- 5.3.2. Types of Biquad Filters.- 5.3.3. A Family of SC Biquad Building Blocks.- 5.3.4. Biquads for High Frequency SC Filters.- 5.4. Design Techniques for SC Ladder Filters.- 5.4.1. Prototype Filters.- 5.4.2. The Approximate Design of Ladder SC Filters.- 5.4.3. An Exact Design Technique for SC Ladder Filters.- 5.5. Design of Wave-SC Filters.- 5.5.1. Introduction of Basic Principles.- 5.5.2. Derivation of Wave Flow Graphs for Basic Circuit Elements.- 5.5.3. Wire Interconnections and their Simulation by Adaptors.- 5.5.4. Equivalence Transformations and Their Applications in the Derivation of Wave Flow Diagrams.- 5.5.5. Switched-Capacitor Implementation of Basic Building Blocks Involving Adaptors.- References and Sources for Further Reading.- 6. Design of Adaptive and Nonlinear Analog CMOS Circuits: Building Block Approach.- 6.1. Introduction.- 6.2. SC integrators and summing amplifiers with controlled gains.- 6.3. Voltage Comparators.- 6.4. Schmitt triggers.- 6.5. MOS Rectifiers.- 6.6. Zero-Crossing Detector and Control Pulse Generator.- 6.7. Balanced Modulators and Synchronous Demodulators.- 6.8. SC Multiplier-Dividers Based on Time-Division Concepts.- 6.9. Design and Some Applications of the SC Generalized Integrator.- 6.10. Time-Function Generation.- 6.10.1. Triangular/square-wave generators.- 6.10.2. Exponential Time-Function Generators.- 6.10.3. Sine-Wave Generations.- 6.11. SC Phase-Locked Loop (PLL).- 6.12. Design of SC Function Generators.- 6.12.1. Piecewise-Linear Function Generator.- 6.12.2. Function Generators Employing Sampling and Time-Division Principles.- 6.13. Voltage Controlled MOSFET Resistors and Transconductors and Some of Their Applications.- 6.14. CMOS Realization of Continuous-Time Multiplier-Dividers, Convolvers and Correlators.- 6.15. Generation of Continuous-Time MOSFET- C Filters.- References and Sources for Further Reading.- 7. CMOS Analog to Digital and Digital to Analog Conversion Systems.- 7.1. Introduction.- 7.2. Digital Codes in A/D and D/A Converters.- 7.3. Characterization of A/D and D/A Converters — Basic Parameters and Properties.- 7.3.1. Static Parameters.- 7.3.2. Dynamic Parameters.- 7.4. Components of A/D and D/A Conversion Systems.- 7.5. D/A Converter Circuits.- 7.5.1. Principles of Operation of Basic D/A Converters.- 7.5.2. Binary Weighted D/A Converters.- 7.5.3. Algorithmic and Pipelined D/A Converters.- 7.5.4. Parallel-Serial or Subranging D/A Converters.- 7.6. A/D Converters — An Overview.- 7.7. High Speed (Video) A/D Converters.- 7.7.1. Parallel or Flash A/D Converters.- 7.7.2. Pipelined A/D Converters.- 7.8. Medium-Speed A/D Converters.- 7.8.1. Cyclic or Algorithmic A/D Converters.- 7.8.2. Successive Approximation A/D Converters.- 7.9. High Performance, Medium- and Low-Speed A/D Converters.- 7.9.1. Oversampling A/D Converters.- 7.9.2. Integrating-Type A/D Converters: Dual-Slope A/D Converters.- References and Sources for Further Reading.