|  | 
 
| 
High-Speed Signaling: Jitter Modeling, Analysis, and Budgeting
×
马上注册,结交更多好友,享用更多功能,让你轻松玩转社区。
您需要 登录 才可以下载或查看,没有账号?注册  Kyung Suk (Dan) Oh (Author), Xing Chao (Chuck) Yuan (Author)
 
 Hardcover: 528 pages
 Publisher: Prentice Hall; 1 edition (October 16, 2011)
 Language: English
 ISBN-10: 0132826917
 ISBN-13: 978-0132826914
 
 
 Table of Contents
 
 Chapter 1: Introduction
 Section 1.1. Signal Integrity Analysis Trends
 Section 1.2. Challenges of High-Speed Signal Integrity Design
 Section 1.3. Organization of This Book
 
 
 Chapter 2: High-Speed Signaling Basics
 Section 2.1. I/O Signaling Basics and Components
 Section 2.2. Noise Sources
 Section 2.3. Jitter Basics and Decompositions
 Section 2.4. Summary
 
 
 Part I: Channel Modeling and Design
 
 Chapter 3: Channel Modeling and Design Methodology
 Section 3.1. Channel Design Methodology
 Section 3.2. Channel Modeling Methodology
 Section 3.3. Modeling with Electromagnetic Field Solvers
 Section 3.4. Backplane Channel Modeling Example
 Section 3.5. Summary
 
 Chapter 4: Network Parameters
 Section 4.1. Generalized Network Parameters for Multi-Conductor Systems
 Section 4.2. Preparing an Accurate S-Parameter Time-Domain Model
 Section 4.3. Passivity Conditions
 Section 4.4. Causality Conditions
 Section 4.5. Summary
 
 
 Chapter 5: Transmission Lines
 Section 5.1. Transmission Line Theory
 Section 5.2. Forward and Backward Crosstalk
 Section 5.3. Time-Domain Simulation of Transmission Lines
 Section 5.4. Modeling Transmission Line from Measurements
 Section 5.5. On-Chip Wire Modeling
 Section 5.6. Comparison of On-Chip, Package, and PCB Traces
 Section 5.7. Summary
 
 
 Part II: Analyzing Link Performance
 
 Chapter 6: Channel Voltage and Timing Budget
 Section 6.1. Timing Budget Equation and Components
 Section 6.2. Fibre Channel Dual-Dirac Model
 Section 6.3. Component-Level Timing Budget
 Section 6.4. Pitfalls of Timing Budget Equation
 Section 6.5. Voltage Budget Equations and Components
 Section 6.6. Summary
 
 Chapter 7: Manufacturing Variation Modeling
 Section 7.1. Introduction to the Taguchi Method
 Section 7.2. DDR DRAM Command/Address Channel Example
 Section 7.3. Backplane Link Modeling Example
 Section 7.4. Summary
 
 Chapter 8: Link BER Modeling and Simulation
 Section 8.1. Historical Background and Chapter Organization
 Section 8.2. Statistical Link BER Modeling Framework
 Section 8.3. Intersymbol Interference Modeling
 Section 8.4. Transmitter and Receiver Jitter Modeling
 Section 8.5. Periodic Jitter Modeling
 Section 8.6. Summary
 
 Chapter 9: Fast Time-Domain Channel Simulation Techniques
 Section 9.1. Fast Time-Domain Simulation Flow Overview
 Section 9.2. Fast System Simulation Techniques
 Section 9.3. Simultaneous Switching Noise Example
 Section 9.4. Comparison of Jitter Modeling Methods
 Section 9.5. Peak Distortion Analysis
 Section 9.6. Summary
 
 Chapter 10: Clock Models in Link BER Analysis
 Section 10.1. Independent and Common Clock Jitter Models
 Section 10.2. Modeling Common Clocking Schemes
 Section 10.3. CDR Circuitry Modeling
 Section 10.4. Passive Channel JIF and Jitter Amplification
 Section 10.5. Summary
 
 
 Part III: Supply Noise and Jitter
 
 Chapter 11: Overview of Power Integrity Engineering
 Section 11.1. PDN Design Goals and Supply Budget
 Section 11.2. Power Supply Budget Components
 Section 11.3. Deriving a Power Supply Budget
 Section 11.4. Supply Noise Analysis Methodology
 Section 11.5. Steps in Power Supply Noise Analysis
 Section 11.6. Summary
 
 Chapter 12: SSN Modeling and Simulation
 Section 12.1. SSN Modeling Challenges
 Section 12.2. SI and PI Co-Simulation Methodology
 Section 12.3. Signal Current Loop and Supply Noise
 Section 12.4. Additional SSN Modeling Topics
 Section 12.5. Case Study: DDR2 SSN Analysis for Consumer Applications
 Section 12.6. Summary
 
 Chapter 13: SSN Reduction Codes and Signaling
 Section 13.1. Data Bus Inversion Code
 Section 13.2. Pseudo Differential Signaling Based on 4b6b Code
 Section 13.3. Summary
 
 Chapter 14: Supply Noise and Jitter Characterization
 Section 14.1. Importance of Supply Noise Induced Jitter
 Section 14.2. Overview of PSIJ Modeling Methodology
 Section 14.3. Noise and Jitter Simulation Methodology
 Section 14.4. Case Study
 Section 14.5. Summary
 
 Chapter 15: Substrate Noise Induced Jitter
 Section 15.1. Introduction
 Section 15.2. Modeling Techniques
 Section 15.3. Measurement Techniques
 Section 15.4. Case Study
 Section 15.5. Summary
 
 Chapter 16: On-Chip Link Measurement Techniques
 Section 16.1. Shmoo and BER Eye Diagram Measurements
 Section 16.2. Capturing Signal Waveforms
 Section 16.3. Link Performance Measurement and Correlation
 Section 16.4. On-Chip Supply Noise Measurement Techniques
 Section 16.5. Advanced Power Integrity Measurements
 Section 16.6. Summary
 
 Chapter 17: Signal Conditioning
 Section 17.1. Single-Bit Response
 Section 17.2. Equalization Techniques
 Section 17.3. Equalization Adaptation Algorithms
 Section 17.4. CDR and Equalization Adaptation Interaction
 Section 17.5. ADC-Based Receive Equalization
 Section 17.6. Future of High-Speed Wireline Equalization
 Section 17.7. Summary
 
 Chapter 18: Applications
 Section 18.1. XDR: High-Performance Differential Memory System
 Section 18.2. Mobile XDR: Low Power Differential Memory System
 Section 18.3. Main Memory Systems beyond DDR3
 Section 18.4. Future Signaling Systems
 | 
 |