Multi-Source Energy Harvesting and Storage for Floating Wireless Sensor Network Nodes With Long Range Communication Capability

被引:75
|
作者
Lee, Wai-Kong [1 ]
Schubert, Martin J. W. [2 ]
Ooi, Boon-Yaik [1 ]
Ho, Stanley Jian-Qin [1 ]
机构
[1] Univ Tunku Abdul Rahman, Fac Informat & Commun Technol, Petaling Jaya 31900, Malaysia
[2] Ostbayer Tech Hsch Regensburg, Dept Elect & Informat, D-93053 Regensburg, Germany
关键词
Energy harvesting; floating device; LoRa; sensor node; solar energy; thermoelectric generation; wireless sensor network (WSN); SMART NODES; SYSTEM; IMPLEMENTATION; EFFICIENT; DESIGN; MPPT;
D O I
10.1109/TIA.2018.2799158
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Wireless sensor networks are widely used for environmental monitoring in remote areas. They are mainly composed of wireless sensor nodes, usually powered by batteries with limited capacity, but are expected to communicate in long range and operate for extended time periods. To overcome these limitations, many energy harvesting techniques are proposed to power wireless nodes for prolonged operation, whereas multihop techniques are utilized to extend the communication range. In this paper, a novel floating device with multisource energy harvesting technology that can be used as a wireless sensor node is proposed. The long range communication between wireless sensor nodes and a gateway is established through LoRa technology. In addition to conventional solar panels, an energy harvesting technique based on thermoelectric generators exploiting thermal differences created between water surface and materials exposed to sunlight is proposed. Energy generated from photovoltaic and thermoelectric generators is combined to power the wireless sensor node. This floating device consumes 6.6216 Wh per day when used as a wireless sensor node for the collection and transmission of environmental data. The sensor node can operate on a water surface for at least 9.6 days when it is not exposed to sunlight. During a sunny day, the floating device can harvest 8.375 Wh from solar panels and 0.425 Wh from thermoelectric generation. In other words, the floating device harvests sufficient energy to be self-sustaining during sunny days.
引用
收藏
页码:2606 / 2615
页数:10
相关论文
共 30 条
  • [21] AoI Optimization in Multi-Source Update Network Systems Under Stochastic Energy Harvesting Model
    Sun, Sujunjie
    Wu, Weiwei
    Fu, Chenchen
    Qiu, Xiaoxing
    Luo, Junzhou
    Wang, Jianping
    IEEE JOURNAL ON SELECTED AREAS IN COMMUNICATIONS, 2024, 42 (11) : 3172 - 3187
  • [22] Multi-source Joint Optimal Scheduling of Wind-PV-thermal-storage with Frequency Modulation Capability of Energy Storage
    Lin, Li
    Ding, Wenmin
    Ma, Xiaohan
    Tang, Chuanwei
    2023 6TH INTERNATIONAL CONFERENCE ON RENEWABLE ENERGY AND POWER ENGINEERING, REPE 2023, 2023, : 283 - 287
  • [23] MEMS Based Multi-Band Energy Harvesting for Wireless Sensor Network Applications
    Raj, V. Amirtha
    2016 INTERNATIONAL CONFERENCE ON ENERGY EFFICIENT TECHNOLOGIES FOR SUSTAINABILITY (ICEETS), 2016, : 573 - 576
  • [24] Comprehensive optimized hybrid energy storage system for long-life solar-powered wireless sensor network nodes
    Qi, Nanjian
    Yin, Yajiang
    Dai, Keren
    Wu, Chengjun
    Wang, Xiaofeng
    You, Zheng
    APPLIED ENERGY, 2021, 290
  • [25] Energy Storage and Management System With Carbon Nanotube Supercapacitor and Multidirectional Power Delivery Capability for Autonomous Wireless Sensor Nodes
    Chen, Hai
    Wei, Bingqing
    Ma, Dongsheng
    IEEE TRANSACTIONS ON POWER ELECTRONICS, 2010, 25 (12) : 2897 - 2909
  • [26] Long-Distance Passive Sensing Tag Design Based on Multi-Source Energy Harvesting and Reflection Amplification
    Li, Gang
    Pan, Chong
    Wu, Bo
    Xu, Zhiliang
    Li, Shihua
    Zhang, Yehua
    Yang, Yongjun
    Zou, Zhuohang
    Shi, Chang
    Wang, Muze
    MICROMACHINES, 2025, 16 (01)
  • [27] Charge-Based Supercapacitor Storage Estimation for Indoor Sub-mW Photovoltaic Energy Harvesting Powered Wireless Sensor Nodes
    Yue, Xicai
    Kiely, Janice
    Gibson, Des
    Drakakis, Emmanuel M.
    IEEE TRANSACTIONS ON INDUSTRIAL ELECTRONICS, 2020, 67 (03) : 2411 - 2421
  • [28] Reliable and energy efficient wireless sensor network design via conditional multi-copying for multiple central nodes
    Ekmen, Merve
    Altin-kayhan, Aysegul
    COMPUTER NETWORKS, 2017, 126 : 57 - 68
  • [29] Neural Network-based Prediction Algorithms for In-Door Multi-Source Energy Harvesting System for Non-Volatile Processors
    Liu, Ning
    Ding, Caiwen
    Wang, Yanzhi
    Hue, Jingtong
    2016 INTERNATIONAL GREAT LAKES SYMPOSIUM ON VLSI (GLSVLSI), 2016, : 275 - 280
  • [30] Assessment of Cornfield LAI Retrieved from Multi-Source Satellite Data Using Continuous Field LAI Measurements Based on a Wireless Sensor Network
    Yu, Lihong
    Shang, Jiali
    Cheng, Zhiqiang
    Gao, Zebin
    Wang, Zixin
    Tian, Luo
    Wang, Dantong
    Che, Tao
    Jin, Rui
    Liu, Jiangui
    Dong, Taifeng
    Qu, Yonghua
    REMOTE SENSING, 2020, 12 (20) : 1 - 19