Md. Faruk Abdullah Al Sohan
ABSTRACT
The research work provides an intelligent renewable power irrigation system for protracted and continuous power supply. In Bangladesh, irrigation is one of the most powerful sources, however it is difficult for a single person to monitor continually and on a regular basis. To make this irrigation easier, our system includes certain modifications to the standard irrigation system. A solar panel, a lithium battery, an architectural model, and a system circuit make up the proposed system. The lithium current battery charging control is characterized by hardware rather than software, increasing the system's dependability and stability. It likes to use solar energy whenever there is enough sunlight, when there is ample sunshine, it prefers to use sun's radiation, while the rechargeable battery acts as a backup in case of conditions such as overcast, rain, and night. To completely use solar energy, the system includes a maximum power point tracking (MPPT) controller., and it provides an extraordinarily long life for the lithium battery using an optimal charging approach that reduces the frequency of the battery charge-discharge cycle. This system may be implemented using low-power technology, as a result, it's suitable for Internet of Things wireless sensor nodes deployed outside (IOT).
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- Year:2018Google Scholar
- Date:JuneGoogle Scholar
- Copyright Year:2018Google Scholar
- Copyright Statement:rightsretainedGoogle Scholar
- DOI:10.1145/1234567890Google ScholarDigital Library
- RRH: F. SurnameGoogle Scholar
- Price:$15.00Google Scholar
Index Terms
- A Low-Power Wireless Sensor Network for a Smart Irrigation System Powered by Solar Energy
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