Finger-NestNet: Interpretable Fingerphoto Verification on Smartphone using Deep Nested Residual Network
Raghavendra Ramachandra, Hailin Li

TL;DR
This paper introduces Finger-NestNet, a deep nested residual network for reliable fingerphoto verification on smartphones, demonstrating improved accuracy and interpretability through visualization techniques on a real dataset.
Contribution
The paper proposes a novel nested residual network architecture for fingerphoto verification and provides interpretability analysis using visualization methods.
Findings
Achieved EER of 1.15% on the fingerphoto dataset.
Outperformed six existing verification methods.
Enhanced interpretability of biometric verification results.
Abstract
Fingerphoto images captured using a smartphone are successfully used to verify the individuals that have enabled several applications. This work presents a novel algorithm for fingerphoto verification using a nested residual block: Finger-NestNet. The proposed Finger-NestNet architecture is designed with three consecutive convolution blocks followed by a series of nested residual blocks to achieve reliable fingerphoto verification. This paper also presents the interpretability of the proposed method using four different visualization techniques that can shed light on the critical regions in the fingerphoto biometrics that can contribute to the reliable verification performance of the proposed method. Extensive experiments are performed on the fingerphoto dataset comprised of 196 unique fingers collected from 52 unique data subjects using an iPhone6S. Experimental results indicate the…
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Taxonomy
TopicsBiometric Identification and Security · Face recognition and analysis · Face and Expression Recognition
MethodsConvolution
