Epidemic-Like Calcium Signaling in Mobile Molecular Communication Networks

Epidemic-Like Calcium Signaling in Mobile Molecular Communication Networks
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移动分子通信网络中类似流行病的钙信号传导

DOI:
10.1109/tnb.2022.3155644
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发表时间:
2022-02
影响因子:
3.9
通讯作者:
Ruyan Wang
Ruyan Wang
中科院分区:
生物学3区
文献类型:
--
作者:
Peng He;Mengnan Su;Yaping Cui;Dapeng Wu;Ruyan Wang

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分子通信是一种新兴的纳米网络通信技术。由于Ca2+信号在生物代谢中的重要作用和在通信工程中的可用特性,它是一种很有前途的MC选择。到目前为止,科学家们通过生物实验和模拟来分析Ca2+信号。目前的研究缺乏定量分析Ca2+信号在网络尺度上传播的数学模型。在这项工作中,我们研究Ca2+信号在生物细胞网络中的传播模式。首先,我们提出了一个改进的Ca2+动力学模型来描述Ca2+信号,考虑细胞的运动和Ca2+浓度的衰减。然后,我们通过波形特征进行多模态分析,并根据其状态对细胞进行分类。此外,在典型流行病模型的基础上,提出了分析钙信号传播的数学模型。该模型充分考虑了以下两方面的相似性:1)传染病在流动个体间传播;2) Ca2+信号在移动细胞间传播。考虑到Ca2+信号的独特特性,对所提出的模型进行了修正以适应实际情况。最后,仿真结果表明,所提出的Ca2+传播模型与蒙特卡罗仿真结果吻合,表明该模型有助于理解Ca2+信号的传播距离和传播速度。
Molecular Communication is an emerging technology enabling communications in nano-networks. Ca2+ signal is one promising option of MC due to the important role in bio-metabolisms and the available characteristics in communication engineering. So far, scientists analyze Ca2+ signaling via bio-experiments and simulations. Current researches lack a mathematical model for quantitative analysis of Ca2+ signal propagation on the network scale. In this work, we investigate the propagation patterns of Ca2+ signals in bio-cellular network. Firstly, we propose an improved Ca2+ dynamics model to describe Ca2+ signals considering movements of cells and attenuation of Ca2+ concentration. Then, we perform multi-modal analysis through the waveform characteristics, and classify cells according to their states. Moreover, a mathematical model is put forward to analyze the propagation of calcium signals based on typical epidemic model. The proposed model fully considers the similarity between: 1) epidemic disease propagates among mobile individuals; 2) Ca2+ signal propagates among mobile cells. The proposed model is amended to fit the case considering unique characters of Ca2+ signal. Finally, simulation results show that the proposed Ca2+ propagation model is coincident with Monte Carlo simulation results, indicating that the model is helpful for understanding how far and how fast Ca2+ signal can propagate.
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