COMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS

With advances in computational technology, the identification of Gamma Ray spectra has become faster and more accurate, allowing for efficient isotope analysis. This study aims to develop and evaluate deep learning models to identify Gamma Ray spectra from isotopes Ba133, Co60, Cs137, and Na22, a...

Full description

Saved in:
Bibliographic Details
Main Author: Michele Simbolon, Elizabeth
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/83912
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:83912
spelling id-itb.:839122024-08-13T13:18:57ZCOMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS Michele Simbolon, Elizabeth Indonesia Final Project Deep learning, YOLO, 1D-CNN, Gamma Ray spectra, data augmentation. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/83912 With advances in computational technology, the identification of Gamma Ray spectra has become faster and more accurate, allowing for efficient isotope analysis. This study aims to develop and evaluate deep learning models to identify Gamma Ray spectra from isotopes Ba133, Co60, Cs137, and Na22, as well as combined spectra of these isotopes. Gamma Ray spectra are important in nuclear physics and medical applications because each isotope has a unique spectrum. The research methodology includes literature review, data collection of Gamma Ray spectra, data preprocessing, and data augmentation. The processed data is then used to train and test YOLO and 1D-CNN models. The YOLO model is tested with variations in spectrum image and color spectrum inputs, while the 1D-CNN model is used to analyze sequential data. The results show that the 1D-CNN model achieves the highest accuracy with an average of 96.21%. The YOLO model’s second variation (color spectrum) achieves an accuracy of 82.69%, while the first variation (spectrum image) achieves 54.17%. The 1D-CNN model performs best in identifying combined spectra. The combination of YOLO and 1D-CNN models improves the efficiency and accuracy of Gamma Ray spectrum identification. Further research is recommended to increase the amount of training data and to use more varied data augmentation techniques. 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 With advances in computational technology, the identification of Gamma Ray spectra has become faster and more accurate, allowing for efficient isotope analysis. This study aims to develop and evaluate deep learning models to identify Gamma Ray spectra from isotopes Ba133, Co60, Cs137, and Na22, as well as combined spectra of these isotopes. Gamma Ray spectra are important in nuclear physics and medical applications because each isotope has a unique spectrum. The research methodology includes literature review, data collection of Gamma Ray spectra, data preprocessing, and data augmentation. The processed data is then used to train and test YOLO and 1D-CNN models. The YOLO model is tested with variations in spectrum image and color spectrum inputs, while the 1D-CNN model is used to analyze sequential data. The results show that the 1D-CNN model achieves the highest accuracy with an average of 96.21%. The YOLO model’s second variation (color spectrum) achieves an accuracy of 82.69%, while the first variation (spectrum image) achieves 54.17%. The 1D-CNN model performs best in identifying combined spectra. The combination of YOLO and 1D-CNN models improves the efficiency and accuracy of Gamma Ray spectrum identification. Further research is recommended to increase the amount of training data and to use more varied data augmentation techniques.
format Final Project
author Michele Simbolon, Elizabeth
spellingShingle Michele Simbolon, Elizabeth
COMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS
author_facet Michele Simbolon, Elizabeth
author_sort Michele Simbolon, Elizabeth
title COMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS
title_short COMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS
title_full COMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS
title_fullStr COMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS
title_full_unstemmed COMPARISON STUDY OF GAMMA RAY SPECTRUM IDENTIFICATION MODELS FOR BA133, CO60, CS137, AND NA22 USING YOU ONLY LOOK ONCE (YOLO) AND 1D CONVOLUTIONAL NEURAL NETWORK (1D CNN) METHODS
title_sort comparison study of gamma ray spectrum identification models for ba133, co60, cs137, and na22 using you only look once (yolo) and 1d convolutional neural network (1d cnn) methods
url https://digilib.itb.ac.id/gdl/view/83912
_version_ 1822010203146551296