Living electronics in cellulose zoogleal mats

Panagiotis Mougkogiannis , Anna Nikolaidou , Andrew Adamatzky
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Abstract

The review starts by investigating the concepts that underpin the use of kombucha in electronic systems, such as its conducting properties, self-healing properties, and capacity to form long-lasting biofilms. The research explores the diverse uses of kombucha-based living electronics, including biosensors, biocomputing devices, energy harvesting systems, and flexible electronics. Proteinoids, a synthetic class of polypeptides, have attracted researchers’ interest because of their structural and functional analogies to natural proteins. This similarity offers numerous opportunities for their usage in diverse fields, such as the development of cutting-edge living electronic systems. This paper analyses the fundamental concepts of integrating proteinoids into living electrical systems, with a specific emphasis on their distinct structural and functional characteristics. The paper explores the possible uses of proteinoid-based electronics, including molecular switches, memory devices, and self-assembling nanostructures, emphasising their superiority to traditional electronic components. Nevertheless, the incorporation of kombucha and proteinoids into living electronics presents several difficulties. These technical challenges affect the production, durability, and expandability of these bio-hybrid systems. Furthermore, this article tackles concerns about biocompatibility, durability, and the necessity for standardised characterisation methodologies.

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活的电子产品在纤维素藻垫
这篇综述首先调查了康普茶在电子系统中使用的基础概念,例如它的导电特性、自愈特性和形成持久生物膜的能力。该研究探索了以康布菌为基础的生物电子产品的多种用途,包括生物传感器、生物计算设备、能量收集系统和柔性电子产品。类蛋白是一类合成多肽,由于其结构和功能与天然蛋白质相似而引起了研究人员的兴趣。这种相似性为它们在不同领域的应用提供了许多机会,例如开发尖端的活体电子系统。本文分析了将类蛋白整合到生活电系统中的基本概念,特别强调了它们独特的结构和功能特征。这篇论文探讨了基于蛋白质的电子器件的可能用途,包括分子开关、存储器件和自组装纳米结构,强调了它们相对于传统电子元件的优越性。然而,将康普茶和类蛋白结合到活体电子产品中存在一些困难。这些技术挑战影响了这些生物混合系统的生产、耐用性和可扩展性。此外,本文还讨论了对生物相容性、耐久性的关注,以及标准化表征方法的必要性。
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