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首页> 外文期刊>Journal of Cell Communication and Signaling >Bacterial intelligence: imitation games, time-sharing, and long-range quantum coherence
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Bacterial intelligence: imitation games, time-sharing, and long-range quantum coherence

机译:细菌情报:模仿游戏,分时和长距离量子相干性

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摘要

Bacteria are far more intelligent than we can think of. They adopt different survival strategies to make their life comfortable. Researches on bacterial communication to date suggest that bacteria can communicate with each other using chemical signaling molecules as well as using ion channel mediated electrical signaling. Though in past few decades the scopes of chemical signaling have been investigated extensively, those of electrical signaling have received less attention. In this article, we present a novel perspective on time-sharing behavior, which maintains the biofilm growth under reduced nutrient supply between two distant biofilms through electrical signaling based on the experimental evidence reported by Liu et al., in 2017. In addition, following the recent work by Humphries et al. Cell 168(1):200a??209, in 2017, we highlight the consequences of long range electrical signaling within biofilm communities through spatially propagating waves of potassium. Furthermore, we address the possibility of two-way cellular communication between artificial and natural cells through chemical signaling being inspired by recent experimental observation (Lentini et al. 2017) where the efficiency of artificial cells in imitating the natural cells is estimated through cellular Turing test. These three spectacular observations lead us to envisage and devise new classical and quantum views of these complex biochemical networks that have never been realized previously.
机译:细菌比我们想象的要聪明得多。他们采用不同的生存策略来使自己的生活舒适。迄今为止,对细菌传播的研究表明,细菌可以使用化学信号分子以及离子通道介导的电信号相互通信。尽管在过去的几十年中,化学信号的范围已被广泛研究,但电信号的范围却受到较少的关注。在本文中,我们介绍了分时行为的新颖观点,该观点基于Liu等人在2017年报告的实验证据,通过电信号传递在两个遥远生物膜之间减少养分供应的情况下维持生物膜生长。 Humphries等人最近的工作。单元168(1):200a ?? 209,在2017年,我们通过钾的空间传播波强调了生物膜群落中远程电信号传递的后果。此外,我们通过最近的实验观察(Lentini等人2017)启发了化学信号传递,从而通过化学信号解决了人工细胞与天然细胞之间双向细胞通讯的可能性,其中人工细胞模仿天然细胞的效率是通过细胞图灵测试来估算的。这三个惊人的发现使我们设想并设计了这些以前从未实现过的复杂生物化学网络的新古典和量子观点。

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