With the proliferation of wireless applications, the electromagnetic (EM) space is becoming more and more crowded and complex. This makes it a challenging task to accommodate the growing number of radio systems with limited radio resources. In this paper, by considering the EM space as a radio ecosystem, and leveraging the analogy to the natural ecosystem in biology, a novel symbiotic communication (SC) paradigm is proposed through which the relevant radio systems, called symbiotic radios (SRs), in a radio ecosystem form a symbiotic relationship (e.g., mutualistic symbiosis) through intelligent resource/service exchange. Radio resources include, e.g., spectrum, energy, and infrastructure, while typical radio services are communicating, relaying, and computing. The symbiotic relationship can be realized via either symbiotic coevolution or symbiotic synthesis. In symbiotic coevolution, each SR is empowered with an evolutionary cycle alongside the multi-agent learning, while in symbiotic synthesis, the SRs ingeniously optimize their operating parameters and transmission protocols by solving a multi-objective optimization problem. Promisingly, the proposed SC paradigm breaks the boundary of radio systems, thus providing us a fresh perspective on radio resource management and new guidelines to design future wireless communication systems.
翻译:随着无线应用的扩散,电磁(EM)空间正变得越来越拥挤和复杂,因此,容纳数量不断增加的无线电系统是一项艰巨的任务,因为无线电资源有限。在本文中,将EM空间视为无线电生态系统,利用生物学中自然生态系统的类比,提出了一个新的共生通信模式,通过这种模式,相关无线电系统,称为共生无线电,在无线电生态系统中通过智能资源/服务交流形成共生关系(如共生共生共生共生共生关系)。无线电资源包括频谱、能源和基础设施,而典型的无线电服务则是通信、中继和计算。共生关系可以通过共生共生共变或共生合成实现。在共生共生共生共生无线电中,每个共生无线电系统都具有进化循环能力,通过共生共生共生互换,同时在共生合成中,斯洛伐克共和国通过解决多目标的通信系统优化参数和传输协议,通过解决多目的设计、转发和计算等典型的无线电系统,从而打破我们未来的无线资源管理模式。