Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features

Fingerprint has a competent level of uniqueness because the various features can form different patterns in humans. It is a verification requirement in various aspects, such as mobile phone, banking accounts, attendance, etc. One of the preventive measures in maintaining performance is liveness dete...

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Main Authors: RASWA, FARCHAN HAKIM, KINARTA, INDRA YUSUF, PULUNGAN, REZA, HARJOKO, AGUS, LEE, CHUNG-TING, LI, YUNG-HUI, WANG, JIA-CHING
Format: Conference or Workshop Item PeerReviewed
Language:English
Published: 2022
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Online Access:https://repository.ugm.ac.id/281950/1/Kinarta_MIPA.pdf
https://repository.ugm.ac.id/281950/
https://ieeexplore.ieee.org/document/9941303
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Institution: Universitas Gadjah Mada
Language: English
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spelling id-ugm-repo.2819502023-11-15T07:27:52Z https://repository.ugm.ac.id/281950/ Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features RASWA, FARCHAN HAKIM KINARTA, INDRA YUSUF PULUNGAN, REZA HARJOKO, AGUS LEE, CHUNG-TING LI, YUNG-HUI WANG, JIA-CHING Information and Computing Sciences Mathematics and Applied Sciences Fingerprint has a competent level of uniqueness because the various features can form different patterns in humans. It is a verification requirement in various aspects, such as mobile phone, banking accounts, attendance, etc. One of the preventive measures in maintaining performance is liveness detection. We deep exploited the handcrafted method to achieve adequate performance. To encapsulate the noise possibility, we added the Bayes shrink-wavelet transform as the noise removal. So, the noise obtained in the fingerprint image can be minimized but keep the quality of the fingerprint image is in good condition. Then, we conjugated the spatial and frequency domain in pixel neighborhood distribution using the local binary pattern (LBP) and local phase quantization (LPQ) feature. Finally, we mapped the learning stage using a prominent classifier, i.e., a support vector machine (SVM). Our experiment was evaluated with LivDet 2015 dataset. The proposed method has achieved sustainable results regarding average error rate (AER). 2022-11-11 Conference or Workshop Item PeerReviewed application/pdf en https://repository.ugm.ac.id/281950/1/Kinarta_MIPA.pdf RASWA, FARCHAN HAKIM and KINARTA, INDRA YUSUF and PULUNGAN, REZA and HARJOKO, AGUS and LEE, CHUNG-TING and LI, YUNG-HUI and WANG, JIA-CHING (2022) Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features. In: 21st International Conference on Machine Learning and Cybernetics, ICMLC 2022, 9-11 September 2022, Japan. https://ieeexplore.ieee.org/document/9941303
institution Universitas Gadjah Mada
building UGM Library
continent Asia
country Indonesia
Indonesia
content_provider UGM Library
collection Repository Civitas UGM
language English
topic Information and Computing Sciences
Mathematics and Applied Sciences
spellingShingle Information and Computing Sciences
Mathematics and Applied Sciences
RASWA, FARCHAN HAKIM
KINARTA, INDRA YUSUF
PULUNGAN, REZA
HARJOKO, AGUS
LEE, CHUNG-TING
LI, YUNG-HUI
WANG, JIA-CHING
Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features
description Fingerprint has a competent level of uniqueness because the various features can form different patterns in humans. It is a verification requirement in various aspects, such as mobile phone, banking accounts, attendance, etc. One of the preventive measures in maintaining performance is liveness detection. We deep exploited the handcrafted method to achieve adequate performance. To encapsulate the noise possibility, we added the Bayes shrink-wavelet transform as the noise removal. So, the noise obtained in the fingerprint image can be minimized but keep the quality of the fingerprint image is in good condition. Then, we conjugated the spatial and frequency domain in pixel neighborhood distribution using the local binary pattern (LBP) and local phase quantization (LPQ) feature. Finally, we mapped the learning stage using a prominent classifier, i.e., a support vector machine (SVM). Our experiment was evaluated with LivDet 2015 dataset. The proposed method has achieved sustainable results regarding average error rate (AER).
format Conference or Workshop Item
PeerReviewed
author RASWA, FARCHAN HAKIM
KINARTA, INDRA YUSUF
PULUNGAN, REZA
HARJOKO, AGUS
LEE, CHUNG-TING
LI, YUNG-HUI
WANG, JIA-CHING
author_facet RASWA, FARCHAN HAKIM
KINARTA, INDRA YUSUF
PULUNGAN, REZA
HARJOKO, AGUS
LEE, CHUNG-TING
LI, YUNG-HUI
WANG, JIA-CHING
author_sort RASWA, FARCHAN HAKIM
title Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features
title_short Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features
title_full Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features
title_fullStr Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features
title_full_unstemmed Fingerprint Liveness Detection Using Denoised-Bayes Shrink Wavelet and Aggregated Local Spatial and Frequency Features
title_sort fingerprint liveness detection using denoised-bayes shrink wavelet and aggregated local spatial and frequency features
publishDate 2022
url https://repository.ugm.ac.id/281950/1/Kinarta_MIPA.pdf
https://repository.ugm.ac.id/281950/
https://ieeexplore.ieee.org/document/9941303
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