In our quest to further enlighten the masses SemiWiki has published four books, we have two more eBooks in post production due out in Q1 2018 and two more topics in research. All of the books are available free for PDF versions or you can get printed versions on Amazon.com or free printed versions at book signings or if you happen to meet me during my travels.
Our first eBook Prototypical is experiencing a resurgence of popularity do to the increase in design starts around the world from non traditional semiconductor companies. Using FPGA prototyping you can get to proof of concept in a short amount of time and a minimal upfront investment so if you are an emerging company or entering an emerging market this book would be a good place to start, absolutely.
The first half of “PROTOTYPICAL” is a concise history of FPGA-based prototyping. We go back to the beginning, briefly introducing the debut of the Altera EP300 in 1984 and the Xilinx XC2064 in 1985. We then discuss the tipping point for what would become FPGA-based prototyping: the introduction of the Quickturn Systems RPM in May 1988. Strictly speaking, the RPM was an FPGA-based hardware emulator, but it set the stage for a radical change in chip development methodology. Intel took the Quickturn technology and put the P5 microarchitecture through its paces on a 14-machine cluster, running a killer demo in 1991 and ultimately releasing the Pentium microprocessor in 1993.
From there, while the large EDA firms scuffled over bigger and bigger hardware emulation capability, several academic teams started deploying FPGAs for reconfigurable computing and rapid prototyping. These teams were looking for lower cost ways to prove out algorithms and chip designs. It was during this period issues of FPGA interconnect and synthesis partitioning were uncovered and addressed – and just in time, as ARM7TDMI synthesizable cores appeared in 1997.
We then launch into chapters with brief timelines of three of the major firms in FPGA-based prototyping: S2C, Synopsys, and Cadence. We close the first half with a look at where FPGA-based prototyping is headed, including how it can help application segments such as automotive, wearables, and the IoT – three segments we believe will see an increasing number of design starts as new players seek to optimize and differentiate their software through chip design.
The second half of “PROTOTYPICAL” is an all-new Field Guide titled “Implementing an FPGA Prototyping Methodology” authored by the teams at S2C. It looks at when design teams need an FPGA-based prototyping solution, how to choose one, and how to be sure the platform is scalable including a look at the latest cloud-based implementations. It then dives into the methodology: setting up a prototype, partitioning, interconnect, debugging, and exercising a design. It’s a practical view of the questions teams have and the issues they run into, and how to solve them.
The Future of FPGA Prototyping
Design for FPGA Prototyping
Moving to the Cloud
Introduction: The Art of the “Start”
A Few Thousand Transistors
Microprocessors, ASICs, and FPGAs
Pre-Silicon Becomes a Thing
Enabling Exploration and Integration
Chapter 1: SoC Prototyping Becomes Imperative
Programmable Logic in Labs
First Productization of Prototyping
Fabless and Design Enablement
Chapter 2: How S2C Stacked Up Success
Making ESL Mean Something
TAI IP and “Prototype Ready”
Taking on the Cloud
Chapter 3: Big EDA Moves In
A Laurel and HARDI Handshake
Verification is Very Valuable
An Either-Or Response
A Bright Future Ahead
Chapter 4: Strategies for Today and Tomorrow
The State of FPGA-Based Prototyping
Developing for ARM Architecture
Adoption Among Major System Houses
Application Segments in Need
When Do You Need an FPGA-based Prototyping Solution?
How Do I Choose Which Solution to Implement?
Building a Scalable Prototyping Platform
Overview of the FPGA Prototyping Methodology Flow
Details of Implementing the FPGA Prototyping Flow
Exercising the Design
Coding with FPGA-based Prototyping in Mind