PHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER

The purpose of this study is to design and implement a scheduled PV Power Plant Single-axis Solar Tracker that will be realized using Arduino. This design takes into account the performance of 3 alternative solutions by using the NASA-SSE satellite database for stand-alone solar cells installed i...

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Main Author: Sadhana, Agya
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/82251
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:82251
spelling id-itb.:822512024-07-06T20:00:21ZPHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER Sadhana, Agya Indonesia Final Project Solar power plant, PVsyst, PV energy yield, motor energy. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/82251 The purpose of this study is to design and implement a scheduled PV Power Plant Single-axis Solar Tracker that will be realized using Arduino. This design takes into account the performance of 3 alternative solutions by using the NASA-SSE satellite database for stand-alone solar cells installed in front of the Conversion Lab Building with standard household loads (refrigerators, lights, TVs, electric stoves). After experimenting with the tool and re-simulating all alternative solutions, 3 alternative solutions were obtained that need to be further explored, namely fixed tilt, continuous tracking, and scheduled tracking. It can be concluded that by utilizing the two features of conventional tracking ideas, namely single-axis and timer-based tracking, this study shows that the design of the PV hybrid tracking solution in terms of assessment matrix, has significant advantages in terms of efficiency and power consumption compared to fixed tilt, continuous tracking, and scheduled tracking designs. With an average yield of 5.59 Wh/h and a motor energy consumption of only 62.77 mWh, the hybrid design has a yield that is only 0.36% lower than the continuous tracking which reaches 5.61 Wh/h. However, the energy consumption of the motor in the hybrid design is 64.2% lower than continuous tracking which requires 175.22 mWh, and only 43.3% higher than scheduled tracking which requires 43.81 mWh. The additional components required are also minimal, so they do not significantly burden the cost and complexity of the circuit. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description The purpose of this study is to design and implement a scheduled PV Power Plant Single-axis Solar Tracker that will be realized using Arduino. This design takes into account the performance of 3 alternative solutions by using the NASA-SSE satellite database for stand-alone solar cells installed in front of the Conversion Lab Building with standard household loads (refrigerators, lights, TVs, electric stoves). After experimenting with the tool and re-simulating all alternative solutions, 3 alternative solutions were obtained that need to be further explored, namely fixed tilt, continuous tracking, and scheduled tracking. It can be concluded that by utilizing the two features of conventional tracking ideas, namely single-axis and timer-based tracking, this study shows that the design of the PV hybrid tracking solution in terms of assessment matrix, has significant advantages in terms of efficiency and power consumption compared to fixed tilt, continuous tracking, and scheduled tracking designs. With an average yield of 5.59 Wh/h and a motor energy consumption of only 62.77 mWh, the hybrid design has a yield that is only 0.36% lower than the continuous tracking which reaches 5.61 Wh/h. However, the energy consumption of the motor in the hybrid design is 64.2% lower than continuous tracking which requires 175.22 mWh, and only 43.3% higher than scheduled tracking which requires 43.81 mWh. The additional components required are also minimal, so they do not significantly burden the cost and complexity of the circuit.
format Final Project
author Sadhana, Agya
spellingShingle Sadhana, Agya
PHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER
author_facet Sadhana, Agya
author_sort Sadhana, Agya
title PHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER
title_short PHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER
title_full PHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER
title_fullStr PHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER
title_full_unstemmed PHOTOVOLTAIC POWER PLANT OUTPUT POWER ENHANCEMENT DESIGN WITH SOLAR TRACKER
title_sort photovoltaic power plant output power enhancement design with solar tracker
url https://digilib.itb.ac.id/gdl/view/82251
_version_ 1822009718541910016