Energy harvesting for IOT

This project aims to improve the sustainability of Internet of Things through recycling light energy used in indoor environments. It consist of an indoor solar-powered, Open- Source Microcontroller with In-Built WiFi functions, powering a Humidity and Temperature sensor, designed to transmit coll...

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Main Author: Phua, Jing Tian
Other Authors: Rusli
Format: Final Year Project
Language:English
Published: 2017
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Online Access:http://hdl.handle.net/10356/70862
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-708622023-07-07T17:13:39Z Energy harvesting for IOT Phua, Jing Tian Rusli School of Electrical and Electronic Engineering DRNTU::Engineering::Electrical and electronic engineering This project aims to improve the sustainability of Internet of Things through recycling light energy used in indoor environments. It consist of an indoor solar-powered, Open- Source Microcontroller with In-Built WiFi functions, powering a Humidity and Temperature sensor, designed to transmit collected data to a nearby database or monitoring device for environmental tracking of an indoor air-conditioned room. The experiments of this project would prove that harvesting indoor energy and deploying a self-sustainable IoT network is possible and viable for wide industrial applications. Experiments are conducted under standard testing conditions to simulate an actual indoor environment and the energy consumption of the setup is measured while operating under a deploy-and-forget mode. Data collected are recorded in a cloud server through an Application Programming Interface, Thingspeak. The circuit design consist of an array Amorphous Silicon Solar Cells, a set of ‘AA’ Nickel Metal Hydride Batteries, a DC-DC Buck Converter, a Humidity and Temperature sensor and a newly launched IoT-specific Microcontroller board called Arduino MKR1000. The Microcontroller possess impressive communication capabilities while consuming very low power as compared to many commercial products in the market. In addition, different types of Solar Cells and Battery Storages are accessed through IV Curve performance parameters and power generation capabilities to select the best performing and sustainable option under indoor conditions. Implementations and results for this project will be included to display the effectiveness, reliability and sustainability of this IoT sensor circuit as compared to existing technologies and projects within the industry. Bachelor of Engineering 2017-05-11T09:03:01Z 2017-05-11T09:03:01Z 2017 Final Year Project (FYP) http://hdl.handle.net/10356/70862 en Nanyang Technological University 91 p. application/pdf
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic DRNTU::Engineering::Electrical and electronic engineering
spellingShingle DRNTU::Engineering::Electrical and electronic engineering
Phua, Jing Tian
Energy harvesting for IOT
description This project aims to improve the sustainability of Internet of Things through recycling light energy used in indoor environments. It consist of an indoor solar-powered, Open- Source Microcontroller with In-Built WiFi functions, powering a Humidity and Temperature sensor, designed to transmit collected data to a nearby database or monitoring device for environmental tracking of an indoor air-conditioned room. The experiments of this project would prove that harvesting indoor energy and deploying a self-sustainable IoT network is possible and viable for wide industrial applications. Experiments are conducted under standard testing conditions to simulate an actual indoor environment and the energy consumption of the setup is measured while operating under a deploy-and-forget mode. Data collected are recorded in a cloud server through an Application Programming Interface, Thingspeak. The circuit design consist of an array Amorphous Silicon Solar Cells, a set of ‘AA’ Nickel Metal Hydride Batteries, a DC-DC Buck Converter, a Humidity and Temperature sensor and a newly launched IoT-specific Microcontroller board called Arduino MKR1000. The Microcontroller possess impressive communication capabilities while consuming very low power as compared to many commercial products in the market. In addition, different types of Solar Cells and Battery Storages are accessed through IV Curve performance parameters and power generation capabilities to select the best performing and sustainable option under indoor conditions. Implementations and results for this project will be included to display the effectiveness, reliability and sustainability of this IoT sensor circuit as compared to existing technologies and projects within the industry.
author2 Rusli
author_facet Rusli
Phua, Jing Tian
format Final Year Project
author Phua, Jing Tian
author_sort Phua, Jing Tian
title Energy harvesting for IOT
title_short Energy harvesting for IOT
title_full Energy harvesting for IOT
title_fullStr Energy harvesting for IOT
title_full_unstemmed Energy harvesting for IOT
title_sort energy harvesting for iot
publishDate 2017
url http://hdl.handle.net/10356/70862
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