基于深度学习的先进芯片设计实现了算法和硬件架构的融合

Hedi Qu, Danqing Ma, Zongqing Qi, Ni Zhu
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引用次数: 0

摘要

为了解决深度学习硬件计算能力不足和功耗高的问题,我们深入研究了深度学习在硬件设计领域的应用,重点是设计和验证用于目标检测的卷积神经网络(CNN)的硬件油门踏板。通过使用 Verilog HDL 语言实现具有高计算并行性的硬件油门踏板,并使用通用验证方法 UVM 进行功能测试,确保了设计的完整性。通过模块级和系统级验证。实验证实了硬件油门踏板在提高目标检测算法计算效率方面的有效性,为深度学习和芯片设计领域的研究贡献了有价值的见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advanced deep-learning-based chip design enabling algorithmic and hardware architecture convergence
In order to solve the problems of insufficient computational power and high power consumption of deep learning hardware, the use of deep learning in the field of hardware design is thoroughly investigated, focusing on the design and validation of a hardware gas pedal for Convolutional Neural Networks (CNNs) for target detection. The completeness of the design is ensured by implementing a hardware gas pedal with high computational parallelism using the Verilog HDL language and functional testing using the Universal Verification Methodology UVM. Through module level and system level verification. The experiments confirm the effectiveness of the hardware gas pedal in improving the computational efficiency of the target detection algorithm, contributing valuable insights to the research in the field of deep learning and chip design.
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