论文标题

空间中的神经形态计算和传感

Neuromorphic Computing and Sensing in Space

论文作者

Izzo, Dario, Hadjiivanov, Alexander, Dold, Dominik, Meoni, Gabriele, Blazquez, Emmanuel

论文摘要

``神经形态''一词是指与生物神经网络的结构和/或动态相似的系统。典型的例子是旨在模仿生物大脑结构的新型计算机芯片,或者从昆虫和哺乳动物中获得的视觉或嗅觉系统从中获得灵感的传感器,以获取有关环境的信息。这种方法并非没有野心,因为它有望使工程设备能够重现生物生物体中观察到的性能水平 - 主要的直接优势是有效利用稀缺资源,这转化为低功率要求。对神经形态设备的低功率和能源效率的重视是空间应用的完美匹配。航天器(尤其是小型化的航天器)具有严格的能量限制,因为它们需要在资源稀缺和极其敌意的环境中运作。在这项工作中,我们介绍了在欧洲航天局(ESA)高级概念团队(ACT)的空间环境中研究神经形态方法的早期尝试的概述。

The term ``neuromorphic'' refers to systems that are closely resembling the architecture and/or the dynamics of biological neural networks. Typical examples are novel computer chips designed to mimic the architecture of a biological brain, or sensors that get inspiration from, e.g., the visual or olfactory systems in insects and mammals to acquire information about the environment. This approach is not without ambition as it promises to enable engineered devices able to reproduce the level of performance observed in biological organisms -- the main immediate advantage being the efficient use of scarce resources, which translates into low power requirements. The emphasis on low power and energy efficiency of neuromorphic devices is a perfect match for space applications. Spacecraft -- especially miniaturized ones -- have strict energy constraints as they need to operate in an environment which is scarce with resources and extremely hostile. In this work we present an overview of early attempts made to study a neuromorphic approach in a space context at the European Space Agency's (ESA) Advanced Concepts Team (ACT).

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