Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing

This project presents an indoor air quality (IAQ) study to trend building underground space’s safe conditions using Wireless Sensor Network with Internet of Things (WSN-IoT). The improved WSN node houses 9 IAQ parameters namely, PM2.5, Temperature, Humidity, Carbon Monoxide, Methane, LPG, Smoke, Oxy...

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Main Author: Guan, Jun Liang
Other Authors: Li King Ho Holden
Format: Final Year Project
Language:English
Published: Nanyang Technological University 2020
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Online Access:https://hdl.handle.net/10356/140702
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Institution: Nanyang Technological University
Language: English
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spelling sg-ntu-dr.10356-1407022023-03-04T19:41:10Z Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing Guan, Jun Liang Li King Ho Holden School of Mechanical and Aerospace Engineering holdenli@ntu.edu.sg Engineering::Mechanical engineering::Mechatronics This project presents an indoor air quality (IAQ) study to trend building underground space’s safe conditions using Wireless Sensor Network with Internet of Things (WSN-IoT). The improved WSN node houses 9 IAQ parameters namely, PM2.5, Temperature, Humidity, Carbon Monoxide, Methane, LPG, Smoke, Oxygen and Carbon Dioxide to monitor the indoor contaminants. The building underground location selected for data collection were Westgate (4days from 1pm to 5pm), Bedok Mall (12days from 12pm to 2pm), Tampines Mall (2days from 1230pm to 230pm) and Changi City Point (3days from 1pm to 3pm). For each run, 2 nodes were used at different locales. Polynomial regression and K-means clustering machine learning algorithms were used to model the surrounding air quality. Cross Validation Score Mean (CVSM) and Silhouette Coefficient was used to quantify the respective model’s goodness of fit, thereby characterizing monitored space’s safe condition. Temperatures achieve a better polynomial regression fitting and CVSM scores of 0.90. Also, PM2.5 had a better K-means clustering and silhouette coefficient of 0.627. These indicate that the parameters chosen are accurate in tending and well classified within its clusters. From observations, IAQ data is unique to its locale which suggests a building-wide coverage will be needed to monitor building underground spaces. The WSN-IoT solution prototyped in this work demonstrated the ability to continuously measure and model the building underground IAQ. Bachelor of Engineering (Mechanical Engineering) 2020-06-01T08:07:08Z 2020-06-01T08:07:08Z 2020 Final Year Project (FYP) https://hdl.handle.net/10356/140702 en C075 application/pdf Nanyang Technological University
institution Nanyang Technological University
building NTU Library
continent Asia
country Singapore
Singapore
content_provider NTU Library
collection DR-NTU
language English
topic Engineering::Mechanical engineering::Mechatronics
spellingShingle Engineering::Mechanical engineering::Mechatronics
Guan, Jun Liang
Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing
description This project presents an indoor air quality (IAQ) study to trend building underground space’s safe conditions using Wireless Sensor Network with Internet of Things (WSN-IoT). The improved WSN node houses 9 IAQ parameters namely, PM2.5, Temperature, Humidity, Carbon Monoxide, Methane, LPG, Smoke, Oxygen and Carbon Dioxide to monitor the indoor contaminants. The building underground location selected for data collection were Westgate (4days from 1pm to 5pm), Bedok Mall (12days from 12pm to 2pm), Tampines Mall (2days from 1230pm to 230pm) and Changi City Point (3days from 1pm to 3pm). For each run, 2 nodes were used at different locales. Polynomial regression and K-means clustering machine learning algorithms were used to model the surrounding air quality. Cross Validation Score Mean (CVSM) and Silhouette Coefficient was used to quantify the respective model’s goodness of fit, thereby characterizing monitored space’s safe condition. Temperatures achieve a better polynomial regression fitting and CVSM scores of 0.90. Also, PM2.5 had a better K-means clustering and silhouette coefficient of 0.627. These indicate that the parameters chosen are accurate in tending and well classified within its clusters. From observations, IAQ data is unique to its locale which suggests a building-wide coverage will be needed to monitor building underground spaces. The WSN-IoT solution prototyped in this work demonstrated the ability to continuously measure and model the building underground IAQ.
author2 Li King Ho Holden
author_facet Li King Ho Holden
Guan, Jun Liang
format Final Year Project
author Guan, Jun Liang
author_sort Guan, Jun Liang
title Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing
title_short Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing
title_full Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing
title_fullStr Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing
title_full_unstemmed Wireless Sensor Network for Internet of Things Facility Management (IoT-FM) environment sensing
title_sort wireless sensor network for internet of things facility management (iot-fm) environment sensing
publisher Nanyang Technological University
publishDate 2020
url https://hdl.handle.net/10356/140702
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