Managing power electronics : VLSI and DSP-driven computer systems

Managing power electronics VLSI and DSP-driven computer systems

A unique system focus that presents specific solutions for specific appliances This publication presents state-of-the-art power management techniques for modern electronic appliances that rely on such very large-scale integration (VLSI) chips as CPUs and DSPs. The author thoroughly covers all aspect...

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Detalles Bibliográficos
Autor principal: Rossetti, Nazzareno, 1951- (-)
Formato: Libro electrónico
Idioma:Inglés
Publicado: Hoboken, N.J. : Wiley c2006.
Edición:1st edition
Materias:
Integrated circuits > Very large scale integration.
Semiconductors.
Signal processing > Digital techniques.
Ver en Biblioteca Universitat Ramon Llull:https://discovery.url.edu/permalink/34CSUC_URL/1im36ta/alma991009626968706719
Tabla de Contenidos:
  • Foreword
  • Preface
  • 1. Introduction
  • 1.1 Technology Landscape
  • 1.2 A Young Industry after All
  • 2. Power Management Technologies
  • 2.1 Introduction
  • 2.2 Integrated Circuits Power Technology: Processing and Packaging
  • Diodes and Bipolar Transistors
  • Metal-Oxide-Semiconductor (MOS) Transistors
  • DMOS Transistors
  • CMOS Transistors
  • Passive Components
  • A Monolithic Process Example
  • Packaging
  • 2.3 Discrete Power Technology: Processing and Packaging
  • From Wall to Board
  • Power MOSFET Technology Basics
  • Package Technologies
  • 2.4 Ongoing Trends
  • 3. Circuits
  • PART I. ANALOG CIRCUITS
  • 3.1 Transistors
  • NPN
  • PNP
  • Trans-Conductance
  • Transistor as Transfer-Resistor
  • Transistor Equations
  • MOS versus Bipolar Transistors
  • 3.2 Elementary Circuits
  • Current Mirror
  • Current Source
  • Differential Input Stage
  • Differential to Single Input Stage
  • Buffer
  • 3.3 Operational Amplifier (Opamp)
  • Inverting and Non-Inverting Inputs
  • Rail to Rail Output Operation
  • CMOS Opamp
  • Opamp Symbol and Configurations
  • DC Open Loop Gain
  • AC Open Loop Gain
  • 3.4 Voltage Reference
  • Positive TC of ?VBE
  • Negative TC of VBE
  • Build a ?VBE
  • Building a Voltage Reference
  • Fractional Band-Gap Voltage Reference
  • 3.5 Voltage Regulator
  • 3.6 Linear versus Switching
  • 3.7 Switching Regulators
  • 3.8 Buck Converters
  • Switching Regulator Power Train
  • Output Capacitor
  • Electrolytic Capacitors and Transient Response
  • Ceramic Capacitors
  • Losses in the Power Train
  • The Analog Modulator
  • Driver
  • Switching Regulator Block Diagram
  • Switching Regulator Control Loop
  • Input Filter
  • Input Inductor LIN
  • Input Capacitor
  • Current Mode
  • 3.9 Flyback Converters
  • PART II. DIGITAL CIRCUITS
  • 3.10 Logic Functions
  • NAND Gate
  • Set-Reset R Flip-Flop
  • Current Mode with Anti-Bouncing Flip-Flop
  • 4. DC-DC Conversion Architectures
  • 4.1 Valley Control Architecture
  • Peak and Valley Control Architectures
  • Transient Response of Each System.
  • Valley Control with FAN5093
  • Conclusion
  • 4.2 Monolithic Buck Converter
  • A New Design Methodology for Faster Time to Market The Design Cycle
  • The FAN5301
  • The Behavioral Model
  • Light Load Operation
  • Full Load Operation
  • Over-Current
  • One Shot
  • Comparator
  • Results
  • Timing
  • Conclusion
  • 4.3 Active Clamp
  • Introduction
  • Application
  • Test Results
  • Comments
  • 4.4 Battery Charging Techniques: New Solutions for Notebook Battery Chargers
  • High Efficiency
  • The Smart Battery System
  • Data Conversion
  • Fast Charge
  • Battery Charger System
  • 4.5 Digital Power
  • Control Algorithm of Modern Switching Regulators: Analog or Digital?
  • Fast Switch mode Regulators and Digital Control
  • 5. Offline (AC-DC) Architectures
  • 5.1 Offline Power Architectures
  • Introduction
  • Offline Control
  • PFC Architecture
  • DC-DC Conversion Down to Low Voltage
  • Future Trends
  • 5.2 Power AC Adapter: Thermal and Electrical Design
  • Introduction: The Challenge
  • AC Adapter Power Dissipation
  • AC Adapter Case Temperature
  • Active and No-load Operation
  • Development of a Solution
  • Conclusion
  • 6. Power Management of Ultraportable Devices
  • 6.1 Power Management of Wireless Computing and Communications Devices
  • The Wireless Landscape
  • Power Management Technologies for Wireless
  • Cellular Telephones
  • Wireless Handheld
  • Charge
  • Protection and Fuel Gauging
  • Convergence of Cellular Telephone and Handheld
  • Future Architectures
  • 6.2 Power Management in Wireless Telephones: Subsystem Design Requirements
  • Smart Phone Subsystems
  • Display Board
  • Keypad Board
  • Main Board
  • Battery Pack
  • AC Adapter
  • 6.3 Powering Feature-Rich Handsets
  • Growing Complexity and Shrinking Cycle Time
  • Power Management Unit
  • Low Dropouts (LDOs)
  • 6.4 More on Power Management Units in Cell Phones
  • Barriers to Up-Integration
  • PMU Building Blocks
  • CPU Regulator
  • Low Dropout Block
  • The Microcontroller
  • The Microcontroller Die
  • Processing Requirements.
  • Microcontroller-Driven Illumination System
  • 6.5 Color Displays and Cameras Increase Demand on Power Sources and Management
  • Digital Still Camera
  • Camera Phones
  • Power Minimization
  • Untethered Operation
  • 7. Computing and Communications Systems.
  • 7.1 Power Management of Desktop and Notebook Computers
  • Power Management System Solution for a Pentium III Desktop System
  • Power Management System Solution for Pentium IV Systems (Desktop and Notebook)
  • Desktop Systems
  • Powering the Silver Box
  • Notebook Systems
  • Future Power Trends
  • 7.2 Computing and Data Communications Converge at the Point of Load
  • The Proliferation of Power Supplies
  • Telecom Power Distribution
  • Computing Power Distribution
  • Multiphase Buck Converter for POLs and VRMs
  • Conclusion
  • 7.3 Efficient Power Management ICs Tailored for DDR-SDRAM Memories
  • Introduction
  • DDR Power Management Architecture
  • Worst Case Current Consumption
  • Average Power Consumption
  • Transient Operation
  • Standby Operation
  • Linear versus Switching
  • Second Generation DDR-DDR2
  • FAN5236 for DDR and DDR2 Memories
  • Future Trends
  • 7.4 Power Management of Digital Set-Top Boxes
  • Set-Top Box Architecture
  • Power Management
  • High Power Set-Top Boxes
  • Low Power Set-Top Boxes
  • Conclusion
  • 7.5 Power Conversion for the Data Communications Market
  • Introduction
  • Current Environment with Separate Networks
  • Migration to Converged Voice/Data/Video IP
  • Telecom -48 V DC Power Distribution
  • Datacom AC Power Distribution
  • Conclusion
  • 8. Future Directions and Special Topics
  • 8.1 Beyond Productivity and Toys: Designing ICs for the Health Care Market
  • 8.2 Power Management Protocols Help Save Energy
  • ACPI
  • Motherboard (DC-DC) Voltage Regulators
  • Offline (AC-DC) Voltage Regulators with Power
  • Factor Correction (PFC)
  • Green Power (Energy Management)
  • New Low Power System Requirements
  • Conclusion
  • 8.3 Heat Disposal in Electronics Applications
  • Active versus Passive Cooling
  • Limits of Passive Cooling
  • Active Cooling
  • Active Cooling-Yes or No?
  • Active Cooling Implementation
  • 8.4 Web Based Design Tools
  • The Tools on the Web
  • 8.5 Motor Drivers for Portable Electronic Appliances
  • Introduction
  • Camera Basics
  • Motors and Motor Drivers
  • Driving Implementation
  • Efficiency
  • DSC Power Consumption
  • Conclusion
  • Appendix A.Fairchild Specifications for FAN5093
  • Appendix B. Fairchild Specifications for FAN4803
  • Appendix C. Fairchild Specifications for FSD210 and FSD200
  • Appendix D. Fairchild Specifications for FAN5307
  • Appendix E. Fairchild Specifications for ACE1502
  • Appendix F. Fairchild Specifications for FAN5236
  • Appendix G. Fairchild Specifications for FAN8702
  • Glossary
  • Further Reading
  • Index.

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