Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoT

With the emergence of the Internet-of-Things, there is a growing need for access control and data protection on low-power, pervasive devices. Key-based biometric cryptosystems are promising for IoT due to its convenient nature and lower susceptibility to attacks. However, the costs associated with b...

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Main Authors: Nima Karimian, Mark Tehranipoor, Damon Woodard, Domenic Forte
Format: Article
Language:English
Published: IEEE 2019-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/8689355/
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author Nima Karimian
Mark Tehranipoor
Damon Woodard
Domenic Forte
author_facet Nima Karimian
Mark Tehranipoor
Damon Woodard
Domenic Forte
author_sort Nima Karimian
collection DOAJ
description With the emergence of the Internet-of-Things, there is a growing need for access control and data protection on low-power, pervasive devices. Key-based biometric cryptosystems are promising for IoT due to its convenient nature and lower susceptibility to attacks. However, the costs associated with biometric processing and template protection are nontrivial for smart cards, and so forth. In this paper, we discuss the cost versus the utility of biometric systems and investigate frameworks for improving them. We propose the noise-aware biometric quantization framework (NA-IOMBA) capable of generating unique, reliable, and high entropy keys with low enrollment times and costs with several experiments. First, we compare its performance with IOMBA and one-class-SVM on multiple biometric modalities, including popular ones (fingerprint and iris) and emerging cardiovascular ones (ECG and PPG). The results show that NA-IOMBA outperforms them all and that ECG provides the best trade-off between reliability, key length, entropy, and implementation cost. Second, we examine the impact on key reliability with ECGs obtained at different sessions and trained with a different number of heartbeats. Finally, implementation results show that incorporating noise models with NA-IOMBA reduces power and utilization overhead by more than 60% by adapting the pre-processing, feature extraction, and post-processing modules.
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spelling doaj.art-af4f073abda0455d8aae3f517e2ec0622022-12-21T18:13:16ZengIEEEIEEE Access2169-35362019-01-017491354914910.1109/ACCESS.2019.29107538689355Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoTNima Karimian0https://orcid.org/0000-0002-4590-7170Mark Tehranipoor1Damon Woodard2Domenic Forte3Department of Computer Engineering, San Jose State University, San Jose, CA, USADepartment of Electrical and Computer Engineering, University of Florida, Gainesville, FL, USADepartment of Electrical and Computer Engineering, University of Florida, Gainesville, FL, USADepartment of Electrical and Computer Engineering, University of Florida, Gainesville, FL, USAWith the emergence of the Internet-of-Things, there is a growing need for access control and data protection on low-power, pervasive devices. Key-based biometric cryptosystems are promising for IoT due to its convenient nature and lower susceptibility to attacks. However, the costs associated with biometric processing and template protection are nontrivial for smart cards, and so forth. In this paper, we discuss the cost versus the utility of biometric systems and investigate frameworks for improving them. We propose the noise-aware biometric quantization framework (NA-IOMBA) capable of generating unique, reliable, and high entropy keys with low enrollment times and costs with several experiments. First, we compare its performance with IOMBA and one-class-SVM on multiple biometric modalities, including popular ones (fingerprint and iris) and emerging cardiovascular ones (ECG and PPG). The results show that NA-IOMBA outperforms them all and that ECG provides the best trade-off between reliability, key length, entropy, and implementation cost. Second, we examine the impact on key reliability with ECGs obtained at different sessions and trained with a different number of heartbeats. Finally, implementation results show that incorporating noise models with NA-IOMBA reduces power and utilization overhead by more than 60% by adapting the pre-processing, feature extraction, and post-processing modules.https://ieeexplore.ieee.org/document/8689355/Internet of ThingsECGbiometricquantizationPPGnoise
spellingShingle Nima Karimian
Mark Tehranipoor
Damon Woodard
Domenic Forte
Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoT
IEEE Access
Internet of Things
ECG
biometric
quantization
PPG
noise
title Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoT
title_full Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoT
title_fullStr Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoT
title_full_unstemmed Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoT
title_short Unlock Your Heart: Next Generation Biometric in Resource-Constrained Healthcare Systems and IoT
title_sort unlock your heart next generation biometric in resource constrained healthcare systems and iot
topic Internet of Things
ECG
biometric
quantization
PPG
noise
url https://ieeexplore.ieee.org/document/8689355/
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AT damonwoodard unlockyourheartnextgenerationbiometricinresourceconstrainedhealthcaresystemsandiot
AT domenicforte unlockyourheartnextgenerationbiometricinresourceconstrainedhealthcaresystemsandiot