用于发动机内部温度传感器的无电池全能量收集系统

Andreas Schorer, M. Shousha, Sebastian Pfennig, M. Haug, Lorandt Fölkel, M. Brooks, J. Groten, Oliver Werzer
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引用次数: 1

摘要

本文提出了一种全能量收集系统,用于从内燃机中收集机械能,为发动机内部的低功率自主传感器系统提供动力,以记录和无线传输活塞温度。由于活塞的往复运动,传感器不能通过电线连接到汽车电气系统,因此通常由电池供电。更换电池是一个耗时的过程,因为发动机的大部分部件需要拆开才能进入活塞。这就是为什么我们提出了一个系统,使用基于柔性PVDF的压电纳米发电机(PENG)将活塞的少量机械能转换为电能。电源管理系统(PMS)包括一个最大功率点(MPP)电路,最大限度地提高了收割机的功率输出,并为传感器提供了一个稳定的直流电压。在本设计中使用的MPP电路具有非常少的元件,从而保持其自身的低功耗。工作时要求最小输入电压为3V,最小功率为1.4µW。在启动过程中,短时间内需要4µW的功率,直到三个PMS的输入电容充电到1.8V。测量结果显示,与没有MPP电路的相同电源管理系统相比,收获功率增加了44%,同时输出电压也更高。模拟活塞运动的原型已经建立,并使用PENG和PMS进行了测试。在600rpm的转速下,每90秒传输一次数据,收获功率为3.5 μ W。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Batteryless Full Energy Harvesting System for Inside-Engine Temperature Sensors
This paper presents a full energy harvesting system for harvesting mechanical energy from internal combustion engines to power low power autonomous sensor systems inside of the engine to record and wirelessly transmit the piston temperatures. Due to the reciprocating movement of the pistons, sensors cannot be connected to the cars electrical system by wires and thus are usually powered by batteries. Changing those batteries is a time consuming process since large parts of the engine needs to be taken apart to get to the pistons. This is the reason why we present a system that uses a piezoelectric nano generator (PENG) based on flexible PVDF to convert a small amount of the mechanical energy of the pistons to electrical energy. A power management system (PMS) including a maximum power point (MPP) circuit maximizes the power output of the harvester and supplies a regulated dc voltage to the sensor. The MPP circuit used in this design has a very few components, thus keeping its own power consumption low. It requires a minimum input voltage of 3V and a minimum power of 1.4µW during operation. During startup, a power of 4µW is required for a short time until the input capacitor of thre PMS is charged to 1.8V. Measurements show an increase of up to 44% of harvested power while also allowing higher output voltages compared to the same power management system without an MPP circuit. A prototype to emulate the movement of the pistons was built and tested with the PENG and PMS. At 600rpm, data transmission is possible every 90 seconds with 3.5µW harvested power.
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