DESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS

Indonesia is the biggest palm oil exporter in the world, with production per year exceeding 51,8 million tonnes it is expected that Indonesia has a lot areas dedicated for palm oil plantation. Peatland is commonly used for growing oil palm, but peatlands poses its own risk. If there is not enough...

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Main Author: Muliawan, Josua
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/51170
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:51170
spelling id-itb.:511702020-09-27T18:37:22ZDESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS Muliawan, Josua Indonesia Final Project Peat, Water level, Power, Solar Panel, Battery, Charge Controller INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/51170 Indonesia is the biggest palm oil exporter in the world, with production per year exceeding 51,8 million tonnes it is expected that Indonesia has a lot areas dedicated for palm oil plantation. Peatland is commonly used for growing oil palm, but peatlands poses its own risk. If there is not enough water in peat, it may easily burn, which usually lead to wildfire. This disaster can be avoided if preparation is made by measuring water level in peatlands at regular interval to determine which location is at risk of wildfire. Thus, Indonesia government issued regulation that ordered water level measuring at regular interval for every peatland that is used for palm oil plantation. An automatic and self-reliant system is needed to answer this regulatios, which started the idea for PeatBuddy. PeatBuddy is a product that is able to measure water level in a location at regular interval, PeatBuddy also operate automatically and need minimum maintenance. Because PeatBuddy will be installed in isolated place, a self powering subsystem is needed. PeatBuddy is equiped with solar panel paired with Lithium Ion batteries, so that it can harness the energy from sun to provide power for whole system. Power management on the subsystem is handled by charge controller module to regulate between charging and using batteries. The final result from this subsystem is able to produce at least 1,356Wh of energy, enough to provide system’s energy requirement power the whole system (0,302Wh), whether it is day or night. Also, power storage in this subsystem is able to provide enough energy to last for 1 month. 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 Indonesia is the biggest palm oil exporter in the world, with production per year exceeding 51,8 million tonnes it is expected that Indonesia has a lot areas dedicated for palm oil plantation. Peatland is commonly used for growing oil palm, but peatlands poses its own risk. If there is not enough water in peat, it may easily burn, which usually lead to wildfire. This disaster can be avoided if preparation is made by measuring water level in peatlands at regular interval to determine which location is at risk of wildfire. Thus, Indonesia government issued regulation that ordered water level measuring at regular interval for every peatland that is used for palm oil plantation. An automatic and self-reliant system is needed to answer this regulatios, which started the idea for PeatBuddy. PeatBuddy is a product that is able to measure water level in a location at regular interval, PeatBuddy also operate automatically and need minimum maintenance. Because PeatBuddy will be installed in isolated place, a self powering subsystem is needed. PeatBuddy is equiped with solar panel paired with Lithium Ion batteries, so that it can harness the energy from sun to provide power for whole system. Power management on the subsystem is handled by charge controller module to regulate between charging and using batteries. The final result from this subsystem is able to produce at least 1,356Wh of energy, enough to provide system’s energy requirement power the whole system (0,302Wh), whether it is day or night. Also, power storage in this subsystem is able to provide enough energy to last for 1 month.
format Final Project
author Muliawan, Josua
spellingShingle Muliawan, Josua
DESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS
author_facet Muliawan, Josua
author_sort Muliawan, Josua
title DESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS
title_short DESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS
title_full DESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS
title_fullStr DESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS
title_full_unstemmed DESIGN AND IMPLEMENTATION OF POWER SUBSYSTEM AND CASING OF WILDFIRE POTENTIAL MONITORING SYSTEM ON PEATLANDS
title_sort design and implementation of power subsystem and casing of wildfire potential monitoring system on peatlands
url https://digilib.itb.ac.id/gdl/view/51170
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