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On the Coexistence of Nano Networks: Sensing Techniques for Molecular Communications

机译:纳米网络的共存:分子通信的传感技术

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摘要

Molecular communication is an emerging communication paradigm for biological nanomachines. The fast growth of molecular communication techniques in varieties of nanomedical applications can result in scenarios where there are more than one nanonetwork working in a biological environment. On the other hand, possible limitation on the type of molecules, used as information carriers, can result in coexistence problems in co-located molecular communication systems. This paper studies the coexistence problem of two nanonetworks, where one of the nanonetworks is able to intelligently sense the molecular channel and use the channel opportunistically for its own transmission. The sensing nanonetwork measures the concentration of molecules as a criterion to detect the channel white spaces by using a molecular energy detection scheme. When the molecular channel is available, the associated transmitter sends its information using the same carrier molecules. Depending on the availability of timing information at the sensing nanodevice, two synchronous and asynchronous sensing mechanisms are provided based on the likelihood ratio test as the optimal detection method. We also provide numerical simulations of the proposed sensing mechanisms to show that the coexistence of multiple molecular communications is feasible and can be efficiently implemented in nanonetworks.
机译:分子通信是生物纳米机器的新兴通信范例。分子通信技术在各种纳米医学应用中的快速发展可能导致在生物环境中存在多个纳米网络的情况。另一方面,对用作信息载体的分子类型的可能限制可能会导致共置分子通信系统中的共存问题。本文研究了两个纳米网络的共存问题,其中一个纳米网络能够智能地感知分子通道,并机会性地利用该通道进行自身传输。传感纳米网络通过使用分子能量检测方案来测量分子浓度,以此作为检测通道空白的标准。当分子通道可用时,关联的发射器使用相同的载体分子发送其信息。根据感测纳米器件上定时信息的可用性,基于似然比测试提供了两种同步和异步感测机制作为最佳检测方法。我们还提供了所提议的传感机制的数值模拟,以表明多种分子通信的共存是可行的,并且可以在纳米网络中有效地实现。

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