FPGA and PCB design teams have begun to leverage the flexibility of FPGA devices to create complex systems while optimizing their PCB design for performance as well as manufacturing costs. The immediate pay-off is a substantial decrease in design cycle time, from weeks to minutes while at the same time eliminating design risks associated with late design changes. The business critical benefit is pure cost savings derived from optimizing the PCB manufacturing process. There are a number of PCB manufacturing optimizations possible as a result of tuning the FPGA/PCB interfaces:

In the good old days, there was just one kind of FPGA – the “big” kind. Big is in quotes, of course, because even today’s most modest, miserly devices are bigger and faster than the best we could muster a decade ago. However, as the high end of FPGA technology rode the rocket of Moore’s Law toward the sky, becoming a viable solution for more and more complex applications, a new creature was born – the low-cost FPGA.

The concept seemed simple enough – “normal” high-end FPGAs were optimized for performance. Nothing was held back … Read More → "Upping the Low-Cost Ante"

The elite party of 90nm high-performance FPGA suppliers has just been crashed. The two big burly guards at the entrance to the VIP room were evidently not paying attention, because Lattice Semiconductor just waltzed right in – as if anybody that wanted to could whip up an FPGA family with 3.4Gbps SerDes transceivers, 2Gbps parallel I/O, up to 115K LUTs, loads of hard IP, and up to 500MHz fabric performance. Did nobody notice those 300mm wafers in their pockets?

For about a year now, only Xilinx and Altera have claimed turf in the 90nm FPGA arena. … Read More → "Lattice Joins the Fray"

Developers have long been intrigued by the potential of reconfigurable computing (RC) to accelerate some computationally-intensive high-performance computing (HPC) applications. But the barriers to achieving the order-of-magnitude performance gains RC can theoretically provide are well known: the complexity of programming for RC devices and the limitations of the hardware and software traditionally used to support them. As a result, software developers have focused on fine tuning applications to run faster on standard microprocessors, and have achieved important percentage gains.

Now, emerging systems like the Cray XD1 are bringing RC application acceleration into the … Read More → "Reconfigurable Computing in Real-World Applications"

It’s a cold February morning in a well-hidden corner of Silicon Valley. The air is perfectly still. The sun is just rising above the hills, although it isn’t clearly visible through the dissipating ground fog cast over the region by the bay. There is a light frost on the grass, even though the temperature has been in the 40s all night. That’s one of the big issues with fictional, metaphoric introductions to technical articles – continuity problems. These things clearly would never stand up to an engineering design review.

… Read More → "Planning Ahead"

In public discussions about embedded multi-processing and FPGAs, most of the focus has been on DSP. But there’s another application area requiring embedded multi-processing that has remained elusive, not because of silicon deficiencies, but due to the lack of an easy methodology. That application is packet processing. Packet processing performance as high as 10 Gbps is possible in FPGAs, so the silicon is fast, but even single gigabit performance has required RTL and a hardware approach to design.

Many companies with projects involving packet processing work exclusively in software, predominantly C. They have infrastructures and methodologies … Read More → "Taming Embedded Multi-Core on FPGAs for Packet Processing"