Optimizing DSP functions in advanced FPGA architectures
By Douang Phanthavong, Mentor Graphics
pldesignline.com
Although FFT and FIR filters may seem complex, in reality they use simple add/subtract/multiply operations. So how can these arithmetic modules, along with shift and pipeline registers in modern FPGAs, be configured in different modes to provide greater flexibility and control with desirable levels of performance? In this "How To" paper, we outline practical steps, along with common mistakes to avoid, for successfully extracting optimal results in your DSP-based FPGA designs.
In high-performance, FPGA-based DSP designs, which typically demand high bandwidth, high throughput, and low operating power, there is very little room for error during the design-planning process. In order to be successful when tackling such designs, you need to understand certain nuances about design specifications and target technology architectures, as well as synthesis tools. With the realization that it is difficult to be an absolute expert on every possible aspect of DSP-based design using programmable logic devices, this article outlines some actions you can take to meet your ultimate objectives when handling these designs.
pldesignline.com
Although FFT and FIR filters may seem complex, in reality they use simple add/subtract/multiply operations. So how can these arithmetic modules, along with shift and pipeline registers in modern FPGAs, be configured in different modes to provide greater flexibility and control with desirable levels of performance? In this "How To" paper, we outline practical steps, along with common mistakes to avoid, for successfully extracting optimal results in your DSP-based FPGA designs.
In high-performance, FPGA-based DSP designs, which typically demand high bandwidth, high throughput, and low operating power, there is very little room for error during the design-planning process. In order to be successful when tackling such designs, you need to understand certain nuances about design specifications and target technology architectures, as well as synthesis tools. With the realization that it is difficult to be an absolute expert on every possible aspect of DSP-based design using programmable logic devices, this article outlines some actions you can take to meet your ultimate objectives when handling these designs.
To read the full article, click here
Related Semiconductor IP
- Peripheral Sensor Interface (PSI5) Host Controller
- Link Acceleration Unit
- 64-bit, RISC-V, ultra-high performance processors
- 64-bit, RISC-V, performance and data computation processors
- 32-bit, RISC-V, deeply embedded processors
Related Articles
- SoCs: DSP World, Cores -> New DSP architectures work harder
- Implementing DSP Functions Within FPGAs
- DSP or FPGA? How to choose the right device
- Image stabilizers: Utilizing DSP for more advanced, scalable stabilization algorithms
Latest Articles
- Design and Development of a Neuromorphic Silicon Suite: PVT Sensing, Stochastic LIF Inference, On-Chip STDP Learning, and Crossbar Programming
- LLM4RTL: Tool-Assisted LLM for RTL Generation
- Towards Delta Aware Training: Efficient DNN Weight Storage for Resource-Constrained FPGAs
- CHERI-D: Secure and efficient inline object ID for CHERI temporal memory safety
- AIA: A 16nm Multicore SoC for Approximate Inference Acceleration Exploiting Non-normalized Knuth-Yao Sampling and Inter-Core Register Sharing