Rapid System Prototyping with FPGAs
1st Edition
Accelerating the Design Process
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Table of Contents
Dedication
Acknowledgments
About the Authors
Chapter 1: Introduction
1.1 FPGA Rapid Design Implementation Potential
1.2 Rapidly Evolving Technology Field
1.3 Design Skill Set Crossover
1.4 Hardware Knowledge for Software/Firmware Designers
1.5 Software Knowledge for Hardware Designers
1.6 When FPGA Technology May Not Be an Ideal Fit
1.7 When FPGAs Technology May Be Appropriate
1.8 Summary
Chapter 2: FPGA Fundamentals
2.1 Overview
2.2 SRAM-Based FPGA Architecture
2.3 Advanced FPGA Features
2.4 Summary
Chapter 3: Optimizing the Development Cycle
3.1 Overview
3.2 FPGA Design Flow
3.3 Summary
Chapter 4: System Engineering
4.1 Overview
4.2 Common Design Challenges and Mistakes
4.3 Defined FPGA Design Process
4.4 Project Engineering and Management
4.5 Training
4.6 Support
4.7 Design Configuration Management
4.8 Summary
Chapter 5: FPGA Device-Level Design Decisions
5.1 Overview
5.2 FPGA Selection Categories
5.3 Design Decisions
5.4 Device Selection Checklist
5.5 Summary
Chapter 6: Board-Level Design Decisions and Allocation
6.1 Overview
6.2 Packaging
6.3 BGA Component Considerations
6.4 I/O Assignment Iteration
6.5 FPGA Device Schematic Symbol Generation
6.6 Thermal
6.7 Board Layout
6.8 Signal Integrity
6.9 Power
6.10 Summary
Chapter 7: Design Implementation
7.1 Overview
7.2 Design Architecture
7.3 Design Entry
7.4 RTL
7.5 Synthesis
7.6 Place and Route
7.7 Summary
Chapter 8: Design Simulation
8.1 Overview
8.2 Stages of Simulation
8.3 Types of Simulation Files
8.4 How Much Simulation?
8.5 Hierarchical Design and Simulation
8.6 Common Simulation Mistakes and Tips
8.7 Summary
Chapter 9: Design Constraints and Optimization
9.1 Overview
9.2 Design Constraint Management
9.3 Design Optimization
9.4 Summary
Chapter 10: Configuration
10.1 Overview
10.2 On-Board Device Configuration
10.3 Configuration Cable Interface
10.4 JTAG Standard
10.5 Design Security
10.6 Summary
Chapter 11: Board-Level Testing
11.1 Overview
11.2 Design Debug Checklist
11.3 Summary
Chapter 12: Advanced Topics Introduction
12.1 Overview
12.2 Reduced Power Consumption
12.3 Volume Production Options
12.4 Summary
Chapter 13: Cores and Intellectual Property
13.1 Overview
13.2 Types of IP
13.3 Categories of IP
13.4 Trade Studies
13.5 Make versus Buy?
13.6 IP Implementation/Tools
13.7 IP Testing/Debug
13.8 Summary
Chapter 14: Embedded Processing Cores
14.1 Overview
14.2 FPGA Embedded Processor Types
14.3 FPGA Processor Use Considerations
14.4 System Design Considerations
14.5 FPGA Embedded Processor Concept Example
14.6 FPGA Embedded Processor Design Checklist
14.7 Summary
Chapter 15: Digital Signal Processing
15.1 Overview
15.2 Basic DSP System
15.3 Essential DSP Terms
15.4 DSP Architectures
15.5 Parallel Execution in DSP Components
15.6 Parallel Execution in FPGA
15.7 When to Use FPGAs for DSP
15.8 FPGA DSP Design Considerations
15.9 FIR Filter Concept Example
15.10 Summary
Chapter 16: Advanced Interconnect
16.1 Overview
16.2 Interconnection Categories
16.3 Advanced I/O Interface Challenges
16.4 Implementing an Advanced Parallel I/O Interface
16.5 Implementing an Advanced Serial I/O Interface
16.6 Summary
Chapter 17: Bringing It All Together
17.1 System Overview
17.2 Requirements Phase
17.3 Architectural Phase
17.4 Implementation Phase
17.5 Verification Phase
17.6 Prototype Delivery
17.7 Summary
Appendix A: Rapid System Prototyping Technical References
Appendix B: Design Phases
Abbreviations and Acronyms
Index
Description
The push to move products to market as quickly and cheaply as possible is fiercer than ever, and accordingly, engineers are always looking for new ways to provide their companies with the edge over the competition. Field-Programmable Gate Arrays (FPGAs), which are faster, denser, and more cost-effective than traditional programmable logic devices (PLDs), are quickly becoming one of the most widespread tools that embedded engineers can utilize in order to gain that needed edge. FPGAs are especially popular for prototyping designs, due to their superior speed and efficiency.
This book hones in on that rapid prototyping aspect of FPGA use, showing designers exactly how they can cut time off production cycles and save their companies money drained by costly mistakes, via prototyping designs with FPGAs first. Reading it will take a designer with a basic knowledge of implementing FPGAs to the “next-level” of FPGA use because unlike broad beginner books on FPGAs, this book presents the required design skills in a focused, practical, example-oriented manner.
Key Features
- In-the-trenches expert authors assure the most applicable advice to practicing engineers
- Dual focus on successfully making critical decisions and avoiding common pitfalls appeals to engineers pressured for speed and perfection
- Hardware and software are both covered, in order to address the growing trend toward "cross-pollination" of engineering expertise
Readership
Embedded Design Engineers, Electrical Engineers, Computer Engineers, Software Engineers , System Engineers, Project Managers. Seniors and post-graduate level electrical and computer engineering students
Details
- No. of pages:
- 320
- Language:
- English
- Copyright:
- © Newnes 2006
- Published:
- 20th September 2005
- Imprint:
- Newnes
- Paperback ISBN:
- 9780750678667
- eBook ISBN:
- 9780080457376
Ratings and Reviews
About the Authors
R. C. Cofer Author
RC Cofer has 30 years of embedded design experience including real-time DSP algorithm development high-speed hardware, ASIC and FPGA design, systems engineering and project management. His technical focus is on system-level design, FPGA-based systems, high-performance hardware and signal processing. He has been educating engineers on FPGA related topics for the 17 years. RC holds an MSEE from the University of Florida and a BSEE from Florida Tech.
Affiliations and Expertise
Field Engineer and On-Site Training Specialist, Avnet Corporation, FL, USA
Benjamin Harding Author
Ben Harding has a BSEE from the University of Alabama with post graduate studies in digital signal processing, control theory, parallel processing and robotics. Ben has held leadership and design roles in a wide range of design and research projects. He has over 20 years of extensive embedded system design experience. His hardware design experience includes high-speed design with DSPs, network processors and programmable logic. Ben also has embedded software development experience in a broad range of areas including voice and signal processing algorithm development and board-support package development for numerous real-time operating systems.
Affiliations and Expertise
Field Engineer and On-Site Training Specialist, Avnet Corp., Florida, USA