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28.4 A CMOS Multimodality In-Pixel Electrochemical and Impedance Cellular Sensing Array for Massively Paralleled Synthetic Exoelectrogen Characterization

机译:28.4用于大规模并联合成外生电子表征的CMOS多模态像素内电化学和阻抗细胞传感阵列

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Electrochemically active bacteria (exoelectrogens) are a class of microorganisms capable of transferring electrons between intracellular and exocellular environments, which generate or consume electrical currents via multiple biochemical redox reactions. This unique attribute allows exoelectrogens to interface between biological environments and electronics for a myriad of hybrid “abiotic-biotic” systems and applications, such as small molecule sensing, bio-computation and energy harvesting [1]. However, natural exoelectrogens typically exhibit insufficient electron-transfer capabilities. Therefore, synthetic biology tools are widely used to create new exoelectrogen species whose natural and engineered capabilities are genetically optimized for target applications.
机译:电化学活性细菌(外生电子)是一类能够在细胞内和细胞外环境之间转移电子的微生物,它们通过多种生物化学氧化还原反应产生或消耗电流。这种独特的属性允许外生电子在生物环境和电子设备之间进行接口,以实现多种混合的“非生物-生物”系统和应用,例如小分子传感,生物计算和能量收集[1]。然而,自然外生电子通常表现出不足的电子传递能力。因此,合成生物学工具被广泛用于创建新的外生电子物种,其自然和工程能力已针对目标应用进行了遗传优化。

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