Observational analysis assesses a solar-powered aerator’s impact on dissolved oxygen levels in tilapia ponds, indicating improved growth rates.
As renewable energy advance, the development, building, and analysis of a solar-powered aerator and lighting system, an environmentally beneficial device that improves water quality while also provide effective, energy-saving lighting for an aquatic setting. A significant problem in fishpond in Minalin, Pampanga the, cultivation is the concentration of dissolved oxygen (DO) in the water; hence, employing aeration is preferable to traditional methods of tilapia farming. To evaluate its efficiency and appropriateness for little fish, the research also looks at the length of time and efficiency of our aeration in the fishpond. Since the system runs constantly 24 hours a day is subjected to water and different weather conditions, the tests involve determining the solar panel's adequate efficiency, our battery's lifespan, and the monitoring and measurement of high-quality materials for the prototype. For our testing we the data shows how the efficiency our solar panel with a content of 39.22Volts 42.22 amperes, and total 4080 watt-hour, aeration demonstrates a 66.67% grow-out rate, significantly outperforming in just 1 month using. To ensure a higher to consistently supply the fish pond's energy needs in order to guarantee optimal system functioning, particularly during prolonged times of low solar input or increasing aeration requirements.
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E. et al. (2025) studied this question.
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