IEEE Trans Nanobioscience. 2017 Oct;16(7):555-562. doi: 10.1109/TNB.2017.2741669. Epub 2017 Aug 18.
In multi-cellular organisms, molecular signaling spans multiple distance scales and is essential to tissue structure and functionality. Molecular communications is increasingly researched and developed as a key subsystem in the Internet-of-Nano-Things paradigm. While short range microscopic diffusion communications is well understood, longer range channels can be inefficient and unreliable. Static and mobile relays have been proposed in both conventional wireless systems and molecular communication contexts. In this paper, our main contribution is to analyze the information delivery energy efficiency of bacteria mobile relays. We discover that these mobile relays offer superior energy efficiency compared with pure diffusion information transfer over long diffusion distances. This paper has widespread implications ranging from understanding biological processes to designing new efficient synthetic biology communication systems.
在多细胞生物中,分子信号跨越多个距离尺度,对组织结构和功能至关重要。分子通信作为物联网范式中的一个关键子系统,越来越受到研究和开发的关注。虽然短距离微观扩散通信已经得到很好的理解,但长距离信道可能效率低下且不可靠。在传统的无线系统和分子通信环境中,都提出了静态和移动中继。在本文中,我们的主要贡献是分析细菌移动中继的信息传递能量效率。我们发现,与长距离扩散信息传输相比,这些移动中继在能量效率方面具有优势。本文的意义广泛,从理解生物过程到设计新的高效合成生物学通信系统都有涉及。