Analog Interfaces for Digital Signal Processing Systems - Sansen, Willy M. C.

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Sommaire:
1. The Power Consumption of CMOS Wideband Amplifiers.- 1.1. Introduction: Why CMOS HF Amplifiers?.- 1.2. The HF Characteristics of a MOSFET.- 1.3. Power Minimisation of Wideband OTAS.- 1.4. Practical Realisations and Experimental Results of the Two HF Amplifiers.- 1.5. Summary.- 1.6. References.- 2. Low-Distortion CMOS Amplifier Design.- 2.1. Introduction.- 2.2. Basic Definitions, Techniques and Expressions.- 2.3. The Relationship between the CMRR and the Harmonic Distortion of a Differential Input Amplifier.- 2.4. The Second Harmonic Distortion of a Class a Amplifier with Limited Power Supply Rejection RATIO.- 2.5. Distortion Due to Thermal Feedback.- 2.6. A Design Example: A CMOS Low-Distortion Class AB Power Amplifier.- 2.7. Summary.- 2.8. References.- Appendix 2.A: Some Remarks about the Volterra Series.- 3. Oversampled A-TO-D and D-TO-A Converters.- 3.1. Introduction.- 3.2. Analog signals versus digital signals.- 3.3. The Principle of Oversampled Data Converters.- 3.4. The Quantisation Noise of Sigma-Delta Modulators.- 3.5. A Comparison of Sigma-Delta Modulation with Other Data Converter Types: When to Use What?.- 3.6. Signal Processing Operations in the PDM Domain.- 3.7. Simulating Sigma-Delta Modulators.- 3.8. Testing A/D AND D/A Converters.- 3.9. Summary.- 3.10. References.- 4. Higher-Order Sigma-Delta A-TO-D Converters.- 4.1. Introduction.- 4.2. The Stability of Sigma-Delta Modulators with an Order Larger than Two.- 4.3. Practical Design Considerations for Sigma-Delta ADCS.- 4.4. A Practical Realisation of a Fourth-Order ADC.- 4.5. Alternative Approaches for Higher-Order Sigma-Delta Modulators.- 4.6. Summary.- 4.7. References.- Appendix 4.A. Some Distortion Generation Mechanisms in a Sigma-Delta ADC.- 5. The Practical Implementation of Sigma-Delta D-TO-A Converters.- 5.1. Introduction.- 5.2. A Voltage Driven DAC.- 5.3. A Current Driven DAC.- 5.4. A Switched-Capacitor DAC.- 5.5. Summary.- 5.6. References.