Exploring Approximate Accelerator Architectures Using Automated FPGA Frameworks

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The emergence of approximate computing has opened up a new world of possibilities for hardware designers. Approximate accelerators are a type of hardware architecture that can be used to speed up computations by sacrificing some accuracy. Automated FPGA frameworks are a powerful tool for exploring these approximate architectures and can help designers quickly evaluate the trade-offs between accuracy and performance.

Approximate accelerators are designed to reduce the amount of time it takes to complete a computation by sacrificing some accuracy. This is done by introducing errors into the computation, which can be controlled by adjusting the parameters of the accelerator. By doing this, designers can achieve significant speedups while still maintaining acceptable levels of accuracy.

Automated FPGA frameworks are a great way to explore approximate accelerator architectures. These frameworks allow designers to quickly evaluate different architectures and parameters to determine which ones are best suited for their application. By using automated FPGA frameworks, designers can quickly and easily explore different architectures and parameters to determine which ones are best suited for their application.

Using automated FPGA frameworks, designers can also quickly evaluate the trade-offs between accuracy and performance. By adjusting the parameters of the accelerator, designers can determine how much accuracy they are willing to sacrifice in order to achieve a certain level of performance. This allows designers to make informed decisions about the trade-offs between accuracy and performance when designing approximate accelerators.

Overall, automated FPGA frameworks are an invaluable tool for exploring approximate accelerator architectures. By using these frameworks, designers can quickly and easily evaluate different architectures and parameters to determine which ones are best suited for their application. Additionally, these frameworks allow designers to quickly evaluate the trade-offs between accuracy and performance when designing approximate accelerators. By taking advantage of these automated FPGA frameworks, designers can ensure that their approximate accelerator architectures are optimized for their specific application.