This design reduces fuel waste in maritime applications, demonstrating durability and user-friendly features for operators.
This research aims to design and develop a fuel volume monitoring system for maritime applications, focusing on improving fuel management on ships. The system utilizes ultrasonic, capacitive, and temperature sensors to accurately measure fuel volume and provide real-time data. The methodology involved designing the system components, selecting appropriate sensors, developing a prototype, and conducting several tests including accuracy, real-time performance, durability in maritime conditions, and user feedback. The results show that the system provided highly accurate fuel volume readings, with discrepancies below 0.3% compared to manual measurements. Real-time monitoring was successfully implemented, enabling operators to track fuel levels and consumption trends efficiently. The system also demonstrated durability under harsh environmental conditions, including high humidity, temperature variations, and vibrations. Feedback from ship operators indicated that the system’s interface was user-friendly, and it contributed to better fuel management, reducing waste and optimizing usage. The research concludes that the developed system has the potential to significantly enhance fuel management practices in the maritime industry, leading to cost savings and improved sustainability. Suggestions for future improvements include system integration with other ship management systems and the incorporation of wireless communication features for remote monitoring.
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Muttaqin et al. (2025) studied this question.
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