2021Unpublished venueRequires access

A Survey of Machine Learning Methods and Applications in Electronic Design Automation

Vladyslav Hamolia, Viktor Melnyk

Open publisher page 17 citations

Abstract

Over the past decades, the domain of electronic circuits design continues transitioning to wider usage of the automation tools to overcome the human level limitations, where integrated circuits (IC) were designed by hand and manually arranged. Experts in the electronic design automation (EDA) industry agree that most of the Application-Specific Integrated Circuit (ASIC) and Field-Programmable Gate Arrays (FPGA) designers will turn to high-level automated design methodologies soon. The main reason for this is the technology improvements that have taken place in the EDA tools, hardware, and software. In the past couple of years, Machine Learning (ML) achievements for EDA turned into a separate field with new studies and methods that enclose all the phases in the chip design flow, such as logic synthesis, design space reduction, exploration, placement, and routing. The latest ML-build approaches have shown considerable improvements in contrast to established traditional methods. This paper covers the newest ML algorithms in FPGA device design, emphasizing the recent research benchmarks’ realizations.

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What this paper is about

Over the past decades, the domain of electronic circuits design continues transitioning to wider usage of the automation tools to overcome the human level limitations, where integrated circuits (IC) were designed by hand and manually arranged. Experts in the electronic design automation (EDA) industry agree that most of the Application-Specific Integrated Circuit (ASIC) and Field-Programmable Gate Arrays (FPGA) designers will turn to high-level automated design methodologies soon. The main reason for this is the technology improvements that have taken place in the EDA tools, hardware, and software. In the past couple of years, Machine Learning (ML) achievements for EDA turned into a separate field with new studies and methods that enclose all the phases in the chip design flow, such as logic synthesis, design space reduction, exploration, placement, and routing. The latest ML-build approaches have shown considerable improvements in contrast to established traditional methods. This paper covers the newest ML algorithms in FPGA device design, emphasizing the recent research benchmarks’ realizations.

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OpenAlex reports 17 citations for this work. Citation counts describe recorded attention and do not establish research quality.

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Available abstract

Over the past decades, the domain of electronic circuits design continues transitioning to wider usage of the automation tools to overcome the human level limitations, where integrated circuits (IC) were designed by hand and manually arranged. Experts in the electronic design automation (EDA) industry agree that most of the Application-Specific Integrated Circuit (ASIC) and Field-Programmable Gate Arrays (FPGA) designers will turn to high-level automated design methodologies soon. The main reason for this is the technology improvements that have taken place in the EDA tools, hardware, and software. In the past couple of years, Machine Learning (ML) achievements for EDA turned into a separate field with new studies and methods that enclose all the phases in the chip design flow, such as logic synthesis, design space reduction, exploration, placement, and routing. The latest ML-build approaches have shown considerable improvements in contrast to established traditional methods. This paper covers the newest ML algorithms in FPGA device design, emphasizing the recent research benchmarks’ realizations.

Key concepts: Electronic design automation, Design flow, Application-specific integrated circuit, Field-programmable gate array, Computer science, Automation, Computer architecture, Embedded system

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