Ultra energy efficient systems in biology, engineering, and medicine

R. Sarpeshkar
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引用次数: 2

Abstract

Summary form only given. Nature is a great analog and digital circuit designer. She has innovated circuits in the biochemical, biomechanical, and bioelectronic domains that operate robustly with highly noisy and imprecise parts and with incredibly low levels of energy. Her impressive accomplishment is largely due to the fact that she uses both analog (graded) and digital (all-or-none) circuits within her cells to sense, actuate, compute, and communicate [1]. Analog and bio-inspired approaches that mimic nature can also create ultra-energy-efficient systems: For example, we show how neural prosthetics of the future such as brain-machine interfaces for the paralyzed can be made so energy efficient [1] that they can be powered from a novel glucose fuel cell that harvests energy from bodily fluids [2]. I also discuss how a positive-feedback loop between analog circuits and cell biology may enable similar synergistic improvements in synthetic and systems biology.
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生物、工程和医学领域的超节能系统
只提供摘要形式。大自然是一个伟大的模拟和数字电路设计者。她在生物化学、生物力学和生物电子领域创新了电路,这些电路在高噪声和不精确的部件以及极低的能量水平下运行稳健。她令人印象深刻的成就主要是由于她在细胞内使用模拟(分级)和数字(全或无)电路来感知、驱动、计算和交流[1]。模仿自然的模拟和生物启发方法也可以创造超节能系统:例如,我们展示了未来的神经义肢,如瘫痪者的脑机接口,可以制造得如此节能[1],以至于它们可以由一种新型的葡萄糖燃料电池供电,这种电池可以从体液中获取能量[2]。我还讨论了模拟电路和细胞生物学之间的正反馈回路如何在合成生物学和系统生物学中实现类似的协同改进。
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