AUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM

This study discusses the application of several neural networks with minimal computational requirements to be able to calibrate perturbated images based on template images. The need for this research is to reduce the cost of observing water level which generally uses conventional sensors which re...

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Main Author: Luscovius Purba, Poppy
Format: Theses
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/69982
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:69982
spelling id-itb.:699822022-12-22T08:58:58ZAUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM Luscovius Purba, Poppy Indonesia Theses Squeeze-HomographyNet, YOLOv5, Homography, Water Level. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/69982 This study discusses the application of several neural networks with minimal computational requirements to be able to calibrate perturbated images based on template images. The need for this research is to reduce the cost of observing water level which generally uses conventional sensors which require higher maintenance costs compared to the use of Artificial Intelligence (AI) and CCTV cameras as sensors. To overcome the large internet needs, image processing is carried out on site using a neural network which can reduce computational needs. The initial stage is to detect symbols that have been designed with YOLOv5 and validate the YOLOv5 results to ensure the sequence of symbols matches the template image. YOLOv5 results that have been validated will be used as input data for Squeeze-HomographyNet which has been developed and trained to perform perspective correction on perturbated measuring board images. The results of the calibrated image will be estimated as a cut-out of the measuring board in the main image to reduce computational requirements in the water surface line detection phase. Furthermore, in the measuring board image the water surface line will be detected and the distance measured with the closest validated symbol and a comparison scale is used between the actual distance (cm) and the image distance (pixels) to measure the entire water level in the observation image. The results of the system development find that in the best case the system can produce 90.77% accuracy for the water level prediction. The resulting neural network model is quite small, around 41.165 Kb for YOLOv5 and 10.987 Kb for Squeeze-HomographyNet. 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 This study discusses the application of several neural networks with minimal computational requirements to be able to calibrate perturbated images based on template images. The need for this research is to reduce the cost of observing water level which generally uses conventional sensors which require higher maintenance costs compared to the use of Artificial Intelligence (AI) and CCTV cameras as sensors. To overcome the large internet needs, image processing is carried out on site using a neural network which can reduce computational needs. The initial stage is to detect symbols that have been designed with YOLOv5 and validate the YOLOv5 results to ensure the sequence of symbols matches the template image. YOLOv5 results that have been validated will be used as input data for Squeeze-HomographyNet which has been developed and trained to perform perspective correction on perturbated measuring board images. The results of the calibrated image will be estimated as a cut-out of the measuring board in the main image to reduce computational requirements in the water surface line detection phase. Furthermore, in the measuring board image the water surface line will be detected and the distance measured with the closest validated symbol and a comparison scale is used between the actual distance (cm) and the image distance (pixels) to measure the entire water level in the observation image. The results of the system development find that in the best case the system can produce 90.77% accuracy for the water level prediction. The resulting neural network model is quite small, around 41.165 Kb for YOLOv5 and 10.987 Kb for Squeeze-HomographyNet.
format Theses
author Luscovius Purba, Poppy
spellingShingle Luscovius Purba, Poppy
AUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM
author_facet Luscovius Purba, Poppy
author_sort Luscovius Purba, Poppy
title AUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM
title_short AUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM
title_full AUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM
title_fullStr AUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM
title_full_unstemmed AUTOMATIC CALIBRATION USING YOLOV5 AND DEEP HOMOGRAPHY - PERSPECTIVE CORRECTION IN WATER LEVEL MEASUREMENT SYSTEM
title_sort automatic calibration using yolov5 and deep homography - perspective correction in water level measurement system
url https://digilib.itb.ac.id/gdl/view/69982
_version_ 1822278635455774720