An FPGA design flow for video imaging applications
By Suhel Dhanani, Altera
July 03, 2007 -- pldesignline.com
FPGAs are increasingly being used in a variety of video and image processing applications, primarily due to the increased complexity and performance requirements that such applications demand. This article examines some of the challenges faced by designers who are implementing video applications in FPGAs and details how some of the tools provided by FPGA vendors can be used to alleviate key design challenges. To better understand these challenges, some of the trends driving the need for ever higher performance and thereby FPGA usage in video applications will be explored.
Trends driving video applications to FPGAs
FPGAs are the ideal platform for implementing digital signal processing (DSP) algorithms with high computational requirements (i.e. high performance), since the ability of an FPGA fabric to lay down multiply-accumulate (MAC) resources in parallel can enable DSP performance that is at least an order of magnitude higher than programmable digital signal processors (DSPs).
Two key trends dominate the video design landscape today that pushes the envelope of available DSP power. One is the move inexorably towards high definition (HD) in everything – from displays and surveillance cameras to medical and military imaging systems. Processing a frame of HD video is approximately 4× to 6× the amount of data being processed when compared to a simple definition (SD) frame. This increased need for high definition data processing is driving video applications into higher performance platforms such as FPGAs.
July 03, 2007 -- pldesignline.com
FPGAs are increasingly being used in a variety of video and image processing applications, primarily due to the increased complexity and performance requirements that such applications demand. This article examines some of the challenges faced by designers who are implementing video applications in FPGAs and details how some of the tools provided by FPGA vendors can be used to alleviate key design challenges. To better understand these challenges, some of the trends driving the need for ever higher performance and thereby FPGA usage in video applications will be explored.
Trends driving video applications to FPGAs
FPGAs are the ideal platform for implementing digital signal processing (DSP) algorithms with high computational requirements (i.e. high performance), since the ability of an FPGA fabric to lay down multiply-accumulate (MAC) resources in parallel can enable DSP performance that is at least an order of magnitude higher than programmable digital signal processors (DSPs).
Two key trends dominate the video design landscape today that pushes the envelope of available DSP power. One is the move inexorably towards high definition (HD) in everything – from displays and surveillance cameras to medical and military imaging systems. Processing a frame of HD video is approximately 4× to 6× the amount of data being processed when compared to a simple definition (SD) frame. This increased need for high definition data processing is driving video applications into higher performance platforms such as FPGAs.
To read the full article, click here
Related Semiconductor IP
- Ultra Ethernet MAC & PCS 100G/200G/400G/800G
- Ethernet PCS 100G/200G/400G/800G/1.6T
- Ethernet MAC 100G/200G/400G/800G/1.6T
- Junction Over-Temperature Detector with Linear Centigrade-to-Voltage Output - X-FAB XT018
- Performance P570 Gen 3
Related Articles
- Generating High Speed CSI2 Video by an FPGA
- An Outline of the Semiconductor Chip Design Flow
- Generative AI for Analog Integrated Circuit Design: Methodologies and Applications
- e-GPU: An Open-Source and Configurable RISC-V Graphic Processing Unit for TinyAI Applications
Latest Articles
- Closer in the Gap: Towards Portable Performance on RISC-V Vector Processors
- TTP: A Hardware-Efficient Design for Precise Prefetching in Ray Tracing
- Heterogeneous SoC Integrating an Open-Source Recurrent SNN Accelerator for Neuromorphic Edge Computing on FPGA
- A Reconfigurable Multiplier Architecture for Error-Resilient Applications in RISC-V Core
- ObfAx: Obfuscation and IP Piracy Detection in Approximate Circuits