Impulse Accelerated Technologies
has announced integrated support for new FSB
(Front Side Bus) enabled Xeon/FPGA processor
In related announcements made at the Intel Developers Forum, hardware platform manufacturers have announced the release of accelerator modules, development boards and complete systems that combine FPGAs with Intel processors using the Intel Front Side Bus (for example, see the Altera and XtremeData announcement).
These new systems represent integrated platforms on which processing can be accelerated through increased algorithm parallelism and high throughput from the host Intel processor and the FPGA accelerator. Impulse C enables these systems by allowing C-language applications to be partitioned between hardware and software, with processor-to-FPGA I/O generated automatically by the compiler.
When used to the their fullest potential, FPGA-accelerated systems allow performance-critical sections of an application to be off-loaded to the FPGA accelerator, accelerating overall system performance from 2× to 10×. For scalable high performance computing algorithms, processing acceleration of 100× or greater is possible.
The key to fully exploiting these new platforms is a common programming language and a coherent tool flow. The vast majority of FPGA applications are still programmed using low-level hardware design languages such as VHDL and Verilog. While these methods are well established for hardware-oriented applications, C-language is a more natural environment for software application development. Impulse C provides a means for software programmers to more quickly take advantage of FPGA acceleration, while also providing control and visibility over FPGA hardware optimization.
Impulse C provides a C-based programming paradigm that provides:
- C as a design language for FPGA-accelerated applications.
- Iterative optimization of C code to increase parallelism, including pipeline generation and analysis.
- Automation of software-to-hardware interconnects, using platform-portable APIs.
- Integration and compatibility with standard C tools and with common FPGA development tools.
The Impulse C tool flow for Xeon/FPGA co-development includes the use of standard software profiling and debugging tools for C application development. Impulse C then extends these standard tools to include C-to-FPGA compilation, as well as providing a C-compatible library of FPGA-specific functions useful for partitioning and parallelizing C code. The Impulse C compiler interfaces directly to FPGA synthesis tools via generated hardware description language files. Impulse also provides "First Design Optimization" services as well as training to help bring software engineers into the hardware world with minimum frustration.
The Impulse C compiler allows application developers to rapidly experiment with FPGA-accelerated algorithms, using familiar C-language programming techniques. By using the FPGA as a highly parallel coprocessor, applications that include financial modeling, scientific computing, bioinformatics and defense can be quickly developed, optimized and deployed. For more information, visit www.ImpulseC.com.