School of Electronics, Kyungpook National University, Daegu 41566, Korea.
Department of Computer Science, Electrical and Space Engineering, Lulea University of Technology, 93187 Lulea, Sweden.
Sensors (Basel). 2018 May 13;18(5):1544. doi: 10.3390/s18051544.
One of the major issues in molecular communication-based nanonetworks is the provision and maintenance of a common time knowledge. To stay true to the definition of molecular communication, biological oscillators are the potential solutions to achieve that goal as they generate oscillations through periodic fluctuations in the concentrations of molecules. Through the lens of a communication systems engineer, the scope of this survey is to explicitly classify, for the first time, existing biological oscillators based on whether they are found in nature or not, to discuss, in a tutorial fashion, the main principles that govern the oscillations in each oscillator, and to analyze oscillator parameters that are most relevant to communication engineer researchers. In addition, the survey highlights and addresses the key open research issues pertaining to several physical aspects of the oscillators and the adoption and implementation of the oscillators to nanonetworks. Moreover, key research directions are discussed.
在基于分子通信的纳米网络中,主要问题之一是提供和维护通用的时间知识。为了忠实于分子通信的定义,生物振荡器是实现这一目标的潜在解决方案,因为它们通过分子浓度的周期性波动产生振荡。从通信系统工程师的角度来看,本调查的范围首次明确地对现有的生物振荡器进行分类,根据它们是在自然界中发现的还是人工合成的来进行分类,以教程的方式讨论每个振荡器中控制振荡的主要原理,并分析与通信工程师研究人员最相关的振荡器参数。此外,该调查还强调并解决了与振荡器的几个物理方面以及振荡器在纳米网络中的采用和实施相关的关键开放研究问题。此外,还讨论了关键的研究方向。