To Demonstrate the Potential Application of “Low Temperature and High Performance Silicon Heterojunction Solar Cells Fabricated Using HWCVD” in Wireless Sensor Network: An Initial Research

电池(电) 能量收集 节点(物理) 无线传感器网络 计算机科学 光伏系统 太阳能 传感器节点 极限(数学) 电气工程 异质结 高效能源利用 能量(信号处理) 无线 光电子学 功率(物理) 计算机网络 材料科学 无线网络 工程类 无线传感器网络中的密钥分配 电信 物理 数学分析 结构工程 数学 量子力学
作者
M. K. Agarwal,Amit Munjal,Rajiv O. Dusane
出处
期刊:Journal of Solar Energy Engineering-transactions of The Asme [ASM International]
卷期号:140 (4) 被引量:3
标识
DOI:10.1115/1.4039427
摘要

Wireless sensor network (WSN) is widely used in a variety of applications including habitat monitoring, military surveillance, environmental monitoring, scientific applications, etc. The major limitation of WSN is that sometimes it is not feasible to replace or recharge the battery once it gets fully exhausted and thus, it limits the lifetime of WSN. One of the possible solutions to overcome this limitation is to incorporate any energy harvesting device, which can use the alternative energy sources to charge the battery. However, the processing temperature and the performance of energy harvesting devices limit their applications. In this paper, low temperature and high performance single-sided silicon heterojunction (SHJ) solar cells are fabricated with 13% efficiency using hot-wire chemical vapor deposition (HWCVD) method. This paper also describes an energy management model that successfully addresses the various issues in the existing energy harvesting models. In order to implement the proposed model, the results show that the high efficiency SHJ solar cells are best suitable candidate as an energy harvesting device that can be incorporated inside the node. The subsequent analysis shows that the consumed power per day by the node can be successfully recovered from the SHJ solar cells, if the sunlight is available only for 25 min in a day with 100 mW/cm2 intensity. This clearly indicates that the node's battery will remain fully charged if the above said condition is satisfied, which seems to be very feasible. Finally, one can conclude that the node functioning will remain active till the battery lifetime i.e., approximately 30 years for Li-ion battery.
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