Design of a flexible multi-source energy harvesting system for autonomously powered IoT : The PERPS project

S. Siskos, V. Gogolou, C. Tsamis, A. Kerasidou, G. Doumenis, Konstantine Tsiapali, S. Katsikas, Andreas Sakellariou
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引用次数: 4

Abstract

A desired property of an autonomous system is the capability to operate and survive in unforeseen conditions. Wireless IoT (formerly Wireless Sensor Network) applications, pose a series of limitations regarding an embedded system’s power consumption and energy autonomy. The PERPS project proposes an innovative approach to energy harvesting systems, aiming to perpetual operation of WSN nodes and portable electronics. A state-of-the-art energy conversion integrated circuit (ENC IC), with real-time S/W algorithms is implemented, to allow the predictive estimation of energy availability at the system’s installation site. A multi-source input is employed combining parallel harvesters for various energy sources including (ambient) light, (micro) vibrations and (small) temperature differences, to upgrade the topology’s efficiency and versatility. In addition, the newly-introduced concept of harvesting energy via triboelectric microgenerators is studied. Ultra-low power consumption microelectronic circuitries and novel storage structure techniques are employed in order the overall architecture to present optimum energy utilization, therefore maximized efficiency. The final version of the system will be tested on a ship’s engine room thus the verification of the PERPS project operational principle will be based on real and demanding environmental conditions.
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自主供电物联网的灵活多源能量收集系统设计:PERPS项目
自主系统的一个理想特性是能够在不可预见的条件下运行和生存。无线物联网(以前称为无线传感器网络)应用,对嵌入式系统的功耗和能源自主性提出了一系列限制。PERPS项目提出了一种能量收集系统的创新方法,旨在WSN节点和便携式电子设备的永久运行。采用最先进的能量转换集成电路(ENC IC),采用实时S/W算法,可以预测系统安装现场的能量可用性。采用多源输入组合并联采集器,用于各种能量源,包括(环境)光、(微)振动和(小)温差,以提高拓扑结构的效率和多功能性。此外,本文还研究了通过微摩擦发电机收集能量的新概念。采用超低功耗微电子电路和新颖的存储结构技术,使整体结构具有最佳的能量利用,从而实现效率最大化。该系统的最终版本将在一艘船的机舱进行测试,因此PERPS项目操作原理的验证将基于真实和苛刻的环境条件。
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