Hybrid ADCs, Smart Sensors for the IoT, and Sub-1V & Advanced Node Analog Circuit Design

<p>Part I.Hybrid Data Converters.- Chapter 1. HYBRID DATA CONVERTERS.- Hybrid and segmented ADC techniques to optimize power efficiency and area. The case of a 0.076mm2 600MS/s 12b SAR- ADC.- Chapter 3. Interleaved Pipelined Sar Adcs: Combined Power for Efficient Accurate High-Speed Conversion.- Chapter 4.Hybrid Vco Based 0-1 Mash and Hybrid Sar._ Chapter 5. A Hybrid Architecture for a Reconfigurable Sar Adc._chapter 6. A Hybrid ADC for High Resolution: The Zoom ADC.- Part II.Smart Sensors for the IoT.- Chapter 7.Advances in Biomedical Sensor Systems for Wearable Health.- Chapter 8.An Ultra-Lowpower, Robust Photoplethysmographic Readout Exploiting Compressive Sampling, Artifact Reduction and Sensor Fusion.- Chapter 9.A 32kHz-DTCXO RTC Module with an Overall Accuracy of ±1ppm and an All-Digital 0.1ppm Compensation Resolution Scheme.- Chapter 10.Energy-Efficient High-Resolution Resistor-Based Temperature Sensors.- Chapter 11. A High-Resolution Self-Oscillating Integrating Dual-Slope CDC For Mems Sensors.- Chapter 12. Ultra-Low Power Charge-Pump Based Bandgap References.- Part III.Sub-1V & Advanced-Node Analog Circuit Design.-Chapter 13. FD-SOI Technology, Advantages for Analog/RF and Mixed-Signal Designs.- Chapter 14.Analog/Mixed-signal Design In Finfet Technologies.- Chapter 15.Analog circuits in 28nm and 14nm FinFET.- Chapter 16.Pipeline and SAR ADCS for Advanced Nodes.- Chapter 17.Time-Based Biomedical Readout in Ultra-Low Voltage, Small-Scale CMOS Technology.- Chapter 18.A 4.4mW-TX, 3.6mW-RX Fully Integrated Bluetooth Low-Energy Transceiver for IoT Applications.<br/></p>