AIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA

Indonesia is a country that has a large potential of renewable energy. One of the abundant renewable energy sources in Indonesia is wind energy which has a potential of about 950 MW which spreads across several locations in Indonesia. However until now, only 75 MW has been used as a power plant. In...

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Main Author: Dzikri Khusaini, Reza
Format: Final Project
Language:Indonesia
Subjects:
Online Access:https://digilib.itb.ac.id/gdl/view/52035
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:52035
spelling id-itb.:520352021-01-20T14:45:05ZAIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA Dzikri Khusaini, Reza Teknik (Rekayasa, enjinering dan kegiatan berkaitan) Indonesia Final Project Wind turbine, airborne, pipe, parafoil, CFD INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/52035 Indonesia is a country that has a large potential of renewable energy. One of the abundant renewable energy sources in Indonesia is wind energy which has a potential of about 950 MW which spreads across several locations in Indonesia. However until now, only 75 MW has been used as a power plant. In this research, the design process of an airborne pipe wind turbine was carried out which is expected to be used to increase the utilization of wind energy in Indonesia. The wind turbine is designed to be able to capture high altitude wind potential in 3T (Disadvantaged, Outermost and Frontier) areas in Indonesia. Wind turbine blades are made using a tube (pipe), therefore the manufacturing process is relatively easier when compared to manufacturing turbine blades in general. To capture wind potential at high altitude, a turbine airborne system using parafoil, rope, and pulley is used. CFD simulations were carried out to obtain the geometry of the pipe wind turbine and parafoil that produces the most optimum performance. From this research, a combination of wind turbine with pipe as blades that has a diameter of 4 meters and airborne wind turbine with air-ram parafoil using NACA 0012 airfoil profile was obtained. This wind turbine can be operated at a high altitude (more than 100 meters) with a maximum power coefficient value of 0.132 at the tip speed ratio of 6.67. 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
topic Teknik (Rekayasa, enjinering dan kegiatan berkaitan)
spellingShingle Teknik (Rekayasa, enjinering dan kegiatan berkaitan)
Dzikri Khusaini, Reza
AIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA
description Indonesia is a country that has a large potential of renewable energy. One of the abundant renewable energy sources in Indonesia is wind energy which has a potential of about 950 MW which spreads across several locations in Indonesia. However until now, only 75 MW has been used as a power plant. In this research, the design process of an airborne pipe wind turbine was carried out which is expected to be used to increase the utilization of wind energy in Indonesia. The wind turbine is designed to be able to capture high altitude wind potential in 3T (Disadvantaged, Outermost and Frontier) areas in Indonesia. Wind turbine blades are made using a tube (pipe), therefore the manufacturing process is relatively easier when compared to manufacturing turbine blades in general. To capture wind potential at high altitude, a turbine airborne system using parafoil, rope, and pulley is used. CFD simulations were carried out to obtain the geometry of the pipe wind turbine and parafoil that produces the most optimum performance. From this research, a combination of wind turbine with pipe as blades that has a diameter of 4 meters and airborne wind turbine with air-ram parafoil using NACA 0012 airfoil profile was obtained. This wind turbine can be operated at a high altitude (more than 100 meters) with a maximum power coefficient value of 0.132 at the tip speed ratio of 6.67.
format Final Project
author Dzikri Khusaini, Reza
author_facet Dzikri Khusaini, Reza
author_sort Dzikri Khusaini, Reza
title AIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA
title_short AIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA
title_full AIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA
title_fullStr AIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA
title_full_unstemmed AIRBORNE PIPE WIND TURBINE DESIGN FOR DISADVANTAGED, OUTERMOST, AND FRONTIER AREAS IN INDONESIA
title_sort airborne pipe wind turbine design for disadvantaged, outermost, and frontier areas in indonesia
url https://digilib.itb.ac.id/gdl/view/52035
_version_ 1823642529169408000