Maximum Energy Productivity for Concurrent Wireless Data and Power Shifting-Enabled IoT Network with Energy Coordination

Sneha Joseph, S. R, Angelina Royappa, Anandakumar D, Gururaj D, K. Karthikeyan
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Abstract

The online phase may be successfully extended by simultaneous wireless data, internet of things (IoT) components, and sophisticated technologies. The development support base station is developed to accomplish the exchange of renewable electricity to manage the volatility of power generation by the hybrid access points. In this research, we jointly investigate the cooperative SWIPT-enabled IoT systems. While maximizing the program's energy consumption, we must also adhere to maximize the transmission limits, thermoelectric generator restrictions, and customer quality of service (QoS) requirements. We collaborate to find solutions to the challenges of power-sharing, period shifting, and ecological collaboration. The incessant algorithm is employed to address the load distribution and duration swapping problems, the matching algorithm is employed to fix the cooperation agreement issue, and since this trouble is a nonlinear optimization issue, it is challenging to address directly. Instead, we are using the interchanging differential technique. The outcomes of the simulations demonstrate that the suggested algorithm performs with a considerable advantage in terms of energy conservation compared to the comparative method. Also, it has been shown that using energy collaboration technologies can reduce the amount of power a system uses and make it run better.
具有能量协调功能的并发无线数据和功率转换物联网网络的最大能量生产力
在线阶段可以通过同步无线数据、物联网(IoT)组件和复杂技术成功扩展。开发支持基站是为了实现可再生电力的交换,以管理混合接入点发电的波动性。在本研究中,我们共同研究了支持swift的协作物联网系统。在最大限度地提高项目能耗的同时,我们还必须坚持最大限度地提高传输限制、热电发电机限制和客户服务质量(QoS)要求。我们合作寻找解决方案,以应对权力分享、周期转换和生态合作的挑战。采用连续算法解决负荷分配和持续时间交换问题,采用匹配算法解决合作协议问题,由于该问题是一个非线性优化问题,因此很难直接解决。相反,我们使用的是互换微分技术。仿真结果表明,该算法在节能方面比比较方法有较大的优势。此外,已经证明,使用能源协作技术可以减少系统使用的电量,使其更好地运行。
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