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康普茶-类蛋白晶体生物电路

Kombucha-Proteinoid Crystal Bioelectric Circuits.

作者信息

Mougkogiannis Panagiotis, Nikolaidou Anna, Adamatzky Andrew

机构信息

Unconventional Computing Laboratory, University of the West of England, Coldharbour Ln, Stoke Gifford, Bristol BS16 1QY, U.K.

School of Architecture and Environment, University of the West of England, Coldharbour Ln, Stoke Gifford, Bristol BS16 1QY, U.K.

出版信息

ACS Omega. 2024 Oct 28;9(45):45386-45401. doi: 10.1021/acsomega.4c07319. eCollection 2024 Nov 12.

Abstract

We propose "kombucha-proteinoid crystal bioelectric circuits" as a sustainable bio-computing platform. These circuits are hybrid biological-inorganic devices that utilize crystal growth dynamics as the physical substrate to convert information. Microfluidic prototypes couple custom-synthesized thermal proteinoids within kombucha cellulose matrices and metastable calcium carbonate solutions. This bio-mineral configuration examines if precision modulation of crystal growth rates could instantiate reconfigurable logic gates for unconventional computing applications. Programming organic acid secretions allows for the adjustment of biotic-mineral polarity, thereby establishing microbial-synthetic pairings that consistently regulate the crystal growth rate of calcite deposition. By coordinating intrinsic physicochemical phenomena, accrued mineral densities literally crystallize additive/multiplicative operations via Boolean AND/OR logics. An additional way to generate structured logics similar of neural assemblies is by chaining modular crystallizer units. Proteinoid-guided carbonate crystallization may prove to be a viable material platform for unconventional computing-green, self-organizing, scalable architectures grown directly from solution-pending definitive affirmation of proof-of-concept.

摘要

我们提出“康普茶-类蛋白晶体生物电路”作为一个可持续的生物计算平台。这些电路是生物-无机混合装置,利用晶体生长动力学作为物理基质来转换信息。微流控原型将定制合成的热类蛋白置于康普茶纤维素基质和亚稳态碳酸钙溶液中。这种生物矿化结构研究了晶体生长速率的精确调制是否可以为非常规计算应用实例化可重构逻辑门。对有机酸分泌进行编程可以调节生物-矿物极性,从而建立微生物-合成配对,持续调节方解石沉积的晶体生长速率。通过协调内在的物理化学现象,累积的矿物密度通过布尔与/或逻辑实际结晶出加法/乘法运算。生成类似于神经组件的结构化逻辑的另一种方法是将模块化结晶器单元链接起来。类蛋白引导的碳酸盐结晶可能被证明是一个可行的材料平台,用于非常规计算——绿色、自组织、可扩展的架构,直接从溶液中生长出来,有待对概念验证进行最终确认。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/04ca/11561624/acf5f24af415/ao4c07319_0001.jpg

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