Exploring Approximate Accelerator Architectures Using Automated Framework on FPGAs

Time Stamp: March 10, 2023 7:41 PM
Source Node: 2512221

The use of Field Programmable Gate Arrays (FPGAs) to explore approximate accelerator architectures has become increasingly popular in recent years. This is due to the flexibility and scalability of FPGAs, which allow for the development of custom hardware solutions tailored to specific applications. Automated frameworks for exploring approximate accelerator architectures on FPGAs have been developed to make the process more efficient and cost-effective.

An automated framework for exploring approximate accelerator architectures on FPGAs typically consists of three main components: a high-level synthesis tool, an optimization tool, and a verification tool. The high-level synthesis tool is used to generate RTL code from a given algorithm or application. This code is then optimized using the optimization tool, which can be used to reduce the area and power consumption of the design. Finally, the verification tool is used to ensure that the design meets the specified requirements.

Using an automated framework for exploring approximate accelerator architectures on FPGAs can provide several advantages. First, it can reduce the time and effort required to develop a custom hardware solution. Second, it can help to reduce the cost of development by eliminating the need for manual coding and debugging. Finally, it can help to ensure that the design meets the specified requirements.

In addition to these benefits, using an automated framework for exploring approximate accelerator architectures on FPGAs can also help to improve the accuracy and performance of the design. This is because the optimization tool can be used to identify and eliminate any unnecessary logic, which can lead to improved accuracy and performance. Furthermore, the verification tool can be used to ensure that the design meets the specified requirements, which can also lead to improved accuracy and performance.

Overall, exploring approximate accelerator architectures on FPGAs using an automated framework can provide several advantages. It can reduce the time and effort required for development, reduce the cost of development, and help to ensure that the design meets the specified requirements. In addition, it can also help to improve the accuracy and performance of the design by eliminating any unnecessary logic and verifying that the design meets the specified requirements.