Implementation of a redox microarray: an experimental model for future nanoscale biomolecular computing using integrated circuits.

M Hiratsuka, T Aoki, H Morimitsu, T Higuchi
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引用次数: 3

Abstract

The possibility of constructing high-density parallel computing architectures using molecular electronics technology is explored. By employing molecular computing devices, new circuitsystem integration could be realised. To clarify the proposed concept, an experimental model of a redox microarray is presented. A first experimental system for a redox microarray consists of a two-dimensional array of platinum microelectrodes to catalyse reversible reactions of redox-active molecules. Experimental results of active wave propagation in the redox microarray are presented to demonstrate the potential of molecular computing devices for creating artificially programmable reaction-diffusion dynamics for specific target applications.

氧化还原微阵列的实现:使用集成电路的未来纳米级生物分子计算的实验模型。
探讨了利用分子电子技术构建高密度并行计算体系结构的可能性。利用分子计算装置,可以实现新的电路系统集成。为了阐明提出的概念,提出了一个氧化还原微阵列的实验模型。第一个用于氧化还原微阵列的实验系统由铂微电极的二维阵列组成,用于催化氧化还原活性分子的可逆反应。在氧化还原微阵列中有源波传播的实验结果展示了分子计算设备为特定目标应用创建人工可编程反应扩散动力学的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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