DESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION

The limited number of Automatic Weather Stations (AWS) available makes it difficult to observe the Temperature Humidity Index (THI). BMKG, as the agency managing AWS reading data, only provides daily data in the form of statistical information on its website. This poses a challenge for observing...

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Main Author: Haryo Pramudio Bagus A, Bambang
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/86195
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:86195
spelling id-itb.:861952024-09-16T14:26:54ZDESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION Haryo Pramudio Bagus A, Bambang Indonesia Final Project Temperature Humidity Index, Automatic Weather Station, Data Acquisition, IoT INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/86195 The limited number of Automatic Weather Stations (AWS) available makes it difficult to observe the Temperature Humidity Index (THI). BMKG, as the agency managing AWS reading data, only provides daily data in the form of statistical information on its website. This poses a challenge for observing THI because THI observation requires historical data. Another limitation is that micro-scale THI observation cannot use macro-scale satellite imagery. These challenges highlight the need for a THI data acquisition system. To address these issues, a THI data acquisition system is needed to provide micro-scale historical weather data. An AWS system is proposed as a solution for collecting temperature and humidity data, with a web application to provide data to users. The Internet of Things (IoT) concept is employed in the system, utilizing the internet to transmit data from AWS to storage. LoRa technology is used as the medium for communication between the data acquisition components, and MQTT technology is used for transmission from the data acquisition tools to the cloud. System testing is conducted using a black- box method and includes 4 testing stages: unit testing, integration testing, system testing, and acceptance testing. Test results indicate that the system can perform data acquisition, storage, and provision to clients. The designed system has a latency of 816 milliseconds for transmission from endpoint to gateway, 90 milliseconds for data processing at the gateway, and 367 milliseconds for transmission from the gateway to the backend service. Data becomes available on the backend service after 1273 milliseconds from the reading time. 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 limited number of Automatic Weather Stations (AWS) available makes it difficult to observe the Temperature Humidity Index (THI). BMKG, as the agency managing AWS reading data, only provides daily data in the form of statistical information on its website. This poses a challenge for observing THI because THI observation requires historical data. Another limitation is that micro-scale THI observation cannot use macro-scale satellite imagery. These challenges highlight the need for a THI data acquisition system. To address these issues, a THI data acquisition system is needed to provide micro-scale historical weather data. An AWS system is proposed as a solution for collecting temperature and humidity data, with a web application to provide data to users. The Internet of Things (IoT) concept is employed in the system, utilizing the internet to transmit data from AWS to storage. LoRa technology is used as the medium for communication between the data acquisition components, and MQTT technology is used for transmission from the data acquisition tools to the cloud. System testing is conducted using a black- box method and includes 4 testing stages: unit testing, integration testing, system testing, and acceptance testing. Test results indicate that the system can perform data acquisition, storage, and provision to clients. The designed system has a latency of 816 milliseconds for transmission from endpoint to gateway, 90 milliseconds for data processing at the gateway, and 367 milliseconds for transmission from the gateway to the backend service. Data becomes available on the backend service after 1273 milliseconds from the reading time.
format Final Project
author Haryo Pramudio Bagus A, Bambang
spellingShingle Haryo Pramudio Bagus A, Bambang
DESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION
author_facet Haryo Pramudio Bagus A, Bambang
author_sort Haryo Pramudio Bagus A, Bambang
title DESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION
title_short DESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION
title_full DESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION
title_fullStr DESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION
title_full_unstemmed DESIGN AND IMPLEMENTATION OF A WEATHER DATA ACQUISITION SYSTEM FOR TEMPERATURE HUMIDITY INDEX CALCULATION
title_sort design and implementation of a weather data acquisition system for temperature humidity index calculation
url https://digilib.itb.ac.id/gdl/view/86195
_version_ 1822010974751686656