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Autori principali: Abhijeet Deshmukh, Prashant Devmane, Rajas Ambekar, Pawar Piyush, Maheshwari N Patil
Natura: Recurso digital
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Pubblicazione: Zenodo 2021
Accesso online:https://doi.org/10.5281/zenodo.18629199
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author Abhijeet Deshmukh
Prashant Devmane
Rajas Ambekar
Pawar Piyush
Maheshwari N Patil
author_facet Abhijeet Deshmukh
Prashant Devmane
Rajas Ambekar
Pawar Piyush
Maheshwari N Patil
contents Energy crisis is one of the most crucial topics in today's world. Conventional energy resources are not only limited and costly, but also the prime cause for environmental pollution. The environmental pollution and rising cost of the fossil fuels have drawn considerable attention to renewable energy sources. Solar energy, being the cleanest and most reliable renewable energy source, is widely utilized in thermal systems to heat water and air. It offers a vast opportunity for public and private organizations to reduce carbon emissions and cut electricity costs. A viable approach to maximizing the solar panel efficiency is solar tracking. Many of the solar panels throughout the world are positioned with the fixed angles. To maximize the use of the solar panel we use a solar tracker which orients itself along the direction of the sunlight. The solar tracker positions the panel in a hemispheroidal rotation to track the movement of the sun and thus increase the total electricity generation. This paper focuses on the development of new approach to control the movement of the solar panel. The purpose of this paper is to simulate and implement the most suitable and efficient control algorithm on the dual-axis solar tracker which can rotate in azimuth and elevation direction. The simulation gives the tracker angles that position the solar panel along the sun's rays such that maximum solar irradiation is absorbed by the panel .This paper therefore proposes an automatic version of dual axis suntracking solar panels using LDR and RTC sensors.
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publishDate 2021
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spellingShingle Automated Dual Axis Sun Tracking Solar Panels based on LDR and RTC Sensor
Abhijeet Deshmukh
Prashant Devmane
Rajas Ambekar
Pawar Piyush
Maheshwari N Patil
Energy crisis is one of the most crucial topics in today's world. Conventional energy resources are not only limited and costly, but also the prime cause for environmental pollution. The environmental pollution and rising cost of the fossil fuels have drawn considerable attention to renewable energy sources. Solar energy, being the cleanest and most reliable renewable energy source, is widely utilized in thermal systems to heat water and air. It offers a vast opportunity for public and private organizations to reduce carbon emissions and cut electricity costs. A viable approach to maximizing the solar panel efficiency is solar tracking. Many of the solar panels throughout the world are positioned with the fixed angles. To maximize the use of the solar panel we use a solar tracker which orients itself along the direction of the sunlight. The solar tracker positions the panel in a hemispheroidal rotation to track the movement of the sun and thus increase the total electricity generation. This paper focuses on the development of new approach to control the movement of the solar panel. The purpose of this paper is to simulate and implement the most suitable and efficient control algorithm on the dual-axis solar tracker which can rotate in azimuth and elevation direction. The simulation gives the tracker angles that position the solar panel along the sun's rays such that maximum solar irradiation is absorbed by the panel .This paper therefore proposes an automatic version of dual axis suntracking solar panels using LDR and RTC sensors.
title Automated Dual Axis Sun Tracking Solar Panels based on LDR and RTC Sensor
url https://doi.org/10.5281/zenodo.18629199