DEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET

The deep learning approach to representing the characteristic textures on the surface of fabrics offers a solution to replace the subjective measurements previously conducted by textile experts. This objective representation plays a crucial role in various industries, such as textile material rec...

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Main Author: Lafifa Zulfa, Iqbal
Format: Theses
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/81136
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:81136
spelling id-itb.:811362024-03-27T14:42:15ZDEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET Lafifa Zulfa, Iqbal Indonesia Theses Texture Representation, Deep Learning, CoMMonS Dataset, High Accuracy, Computational Efficiency, VGG-S-BN. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/81136 The deep learning approach to representing the characteristic textures on the surface of fabrics offers a solution to replace the subjective measurements previously conducted by textile experts. This objective representation plays a crucial role in various industries, such as textile material recognition, product design, and quality control. Ins this study, we develop a deep learning model capable of providing highly accurate texture representation with optimal time efficiency. The deep learning model was trained on the CoMMonS dataset, comprising 6912 images of 24 textile materials. The data were analyzed and classified by experts into three categories, namely fiber length, smoothness, and toweling effect, serves as a significant benchmark for deep learning models. We have selected to use VGG-S-BN (VGG-S with Batch Normalization) as the primary framework, known for its effectiveness in image processing and also the model will become a solution for computational cost problem. The results show that VGG-S-BN outperforms VGG16 and MuLTER in terms of computational cost, accuracy, and loss value in extracting features from the dataset. The accuracy values obtained by VGG-S-BN are 67.36%, 55.13%, 67.36% on the training data and 74.32%, 65.23%, 74.32% on the validation data with the best learning rate set at 0.001. The research findings are expected to make a significant contribution to improving the accuracy and efficiency of fabric texture representation in the textile industry. 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 deep learning approach to representing the characteristic textures on the surface of fabrics offers a solution to replace the subjective measurements previously conducted by textile experts. This objective representation plays a crucial role in various industries, such as textile material recognition, product design, and quality control. Ins this study, we develop a deep learning model capable of providing highly accurate texture representation with optimal time efficiency. The deep learning model was trained on the CoMMonS dataset, comprising 6912 images of 24 textile materials. The data were analyzed and classified by experts into three categories, namely fiber length, smoothness, and toweling effect, serves as a significant benchmark for deep learning models. We have selected to use VGG-S-BN (VGG-S with Batch Normalization) as the primary framework, known for its effectiveness in image processing and also the model will become a solution for computational cost problem. The results show that VGG-S-BN outperforms VGG16 and MuLTER in terms of computational cost, accuracy, and loss value in extracting features from the dataset. The accuracy values obtained by VGG-S-BN are 67.36%, 55.13%, 67.36% on the training data and 74.32%, 65.23%, 74.32% on the validation data with the best learning rate set at 0.001. The research findings are expected to make a significant contribution to improving the accuracy and efficiency of fabric texture representation in the textile industry.
format Theses
author Lafifa Zulfa, Iqbal
spellingShingle Lafifa Zulfa, Iqbal
DEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET
author_facet Lafifa Zulfa, Iqbal
author_sort Lafifa Zulfa, Iqbal
title DEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET
title_short DEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET
title_full DEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET
title_fullStr DEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET
title_full_unstemmed DEEP LEARNING MODEL FOR LONG FIBER, SMOOTHNESS, AND TOWELING EFFECT RECOGNITION ON THE COMMONS DATASET
title_sort deep learning model for long fiber, smoothness, and toweling effect recognition on the commons dataset
url https://digilib.itb.ac.id/gdl/view/81136
_version_ 1822997155054354432