基于fpga的神经形态视觉算法加速框架

M. DeBole, Ahmed Al-Maashri, M. Cotter, Chi-Li Yu, C. Chakrabarti, N. Vijaykrishnan
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引用次数: 10

摘要

传统上,神经形态算法的实现是在消耗大量能量的平台上实现的,缺乏其生物学基础。最近FPGA技术的改进使FPGA成为实现这些快速发展算法的平台。不幸的是,在fpga上实现设计对于非专家来说仍然具有挑战性,限制了它们在神经科学领域的应用。本文提出了一种FPGA框架,使神经科学家能够为皮质目标分类模型组成多个FPGA系统。通过将该算法映射到两个不同的平台上,可以在参考CPU实现上提供高达28倍的加速,从而证明了这一点。
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A framework for accelerating neuromorphic-vision algorithms on FPGAs
Implementations of neuromorphic algorithms are traditionally implemented on platforms which consume significant power, falling short of their biologically underpinnings. Recent improvements in FPGA technology have led to FPGAs becoming a platform in which these rapidly evolving algorithms can be implemented. Unfortunately, implementing designs on FPGAs still prove challenging for nonexperts, limiting their use in the neuroscience domain. In this paper, a FPGA framework is presented which enables neuroscientists to compose multi-FPGA systems for a cortical object classification model. This is demonstrated by mapping this algorithm onto two distinct platforms providing speedups of up to ∼28X over a reference CPU implementation.
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