International Research Journal of Engineering and Technology (IRJET)
e-ISSN: 2395-0056
Volume: 11 Issue: 04 | Apr 2024
p-ISSN: 2395-0072
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IOT BASED SOLAR MONITORING SYSTEM USING ARDUINO Padmini Mishra1, Ganesh Sethi2, Nitish Kumar Prasad2, Bhumika Pradhan2, Alok Chandra Mishra2 1Assistant professor, ECE department , GIETU, Gunupur, Odisha, India 2UG Scholar, ECE department, GIETU, Gunupur ,Odisha , India
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primary objective is to empower users with the tools and insights necessary to optimize the performance of their solar panels. By leveraging advanced sensors and intelligent algorithms, the Solar Monitoring System delivers not only real-time data but also a historical perspective on the system's performance. This enables users to make informed decisions regarding maintenance, troubleshooting, and overall system optimization. The Solar Monitoring System project is not just about data collection; it's about providing users with a proactive approach to solar panel management. The inclusion of a dynamic sun tracking mechanism ensures accurate solar radiation readings, while high-precision sensors monitor the electrical performance of the panels. Additionally, an alert system promptly notifies users of any deviations from expected performance, allowing for swift intervention to minimize downtime and maximize energy production. Ambuj Gupta Student et al [1] In this study proposed and explored the application of the use of Raspberry Pi as a microcontroller-based computer in solar monitoring systems they have explored the versatility and cost-effectiveness of Raspberry Pi in collecting and transmitting data from solar panels the integration of Analog to Digital Convertors (ADCs), such as MCP3008, has been investigated for precise data acquisition in solar metering systems. Solar Infrared et al [2] In this study proposed Infrared Thermography has emerged as a powerful tool for inspecting photovoltaic solar systems, enabling nonintrusive and comprehensive analysis. Literature underscores its potential to detect issues such as damage to cells, loss of efficiency, and fire hazards. The application of infrared cameras for large-scale solar system assessment is gaining prominence due to its efficiency in capturing detailed thermal information. Manish Katyarmal et al [3] In this study the researchers emphasize the use of web-based interfaces as a practical solution for remotely monitoring solar plants. The majority of solar installations being in hard-to-reach locations necessitates a dedicated approach for real-time monitoring and data access. Savitha Krishna et al[4] In this study the focus is on real-time data analysis and representation is crucial for understanding the dynamic performance of individual units and the entire solar microgrid system. Studies highlight the importance of actionable insights derived from continuous monitoring, contributing to efficient decision-making and system maintenance. The literature recognizes and addresses the challenges encountered during the transformation of solar
looking initiative designed to elevate the efficiency and reliability of solar energy systems. By integrating continuous monitoring of solar radiation levels with precise measurements of voltage and power output, this system provides users with a comprehensive understanding of solar panel performance. Utilizing advanced sensors and intelligent algorithms, the Solar Monitoring System delivers real-time data analysis through a user-friendly interface, facilitating seamless access, and response to critical performance metrics. The interface serves as a centralized hub for data visualization, supporting both real-time monitoring and historical analysis. To enhance user experience, the system incorporates an alert mechanism, notifying users of any deviations from expected performance parameters and the goal of this solar monitoring system is to measure the current generated by the solar panel, displays it on an alphanumeric LCD, and control a DC motor based on the solar power generation. In essence, the Solar Monitoring System project aims to simplify and enhance the monitoring of solar energy systems, contributing to the broader goals of sustainable energy solutions and the continual advancement of solar technology and through monitoring methods, users can analyze and optimize the use of renewable energy, leading to reduced concerns associated with electricity consumption. This project addresses this need by proposing a sophisticated yet user-friendly system that integrates continuous solar radiation monitoring with precise measurements of voltage and power output. The project's primary objective is to empower users with the tools and insights necessary to optimize the performance of their solar panels. Key Words: Arduino, Resistor, C Motor, ACS712, LM044(LCD Display), Solar Panel.
1.INTRODUCTION The Solar Monitoring System project represents a significant stride towards enhancing the performance and reliability of solar energy systems, responding to the growing need for efficient and sustainable energy solutions. In the context of escalating environmental concerns and the increasing adoption of solar technologies, the need for real-time, comprehensive monitoring systems has become imperative. This project addresses this need by proposing a sophisticated yet user-friendly system that integrates continuous solar radiation monitoring with precise
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