Finger Knuckle Print classification: Leveraging vision Mamba for low complexity and high accuracy

Although FKP has been recognized as a viable alternative to other biometric modalities, its adoption remains in the early stages due to its accuracy being lower than that of more competitive options. This research aims to bridge this performance gap by presenting an advancement in the classification of Finger Knuckle Prints (FKPs) using the Vision Mamba (ViM) model. The experimental study, conducted on a dataset from Hong Kong Polytechnic University containing 7,920 images from 165 individuals, evaluated the ViM model’s performance against several pretrained classification models. ViM achieved an impressive accuracy of 99.1%, outperforming other models such as AlexNet (96.2%), SCNN (98.3%), and EfficientNet (98.0%), highlighting its superior capability in FKP classification. With around 7 million parameters, ViM balances complexity and performance, engineered specifically to capture fine-grained FKP features, such as texture and line patterns. Its use of weight decay mitigates overfitting, and it demonstrates resilience in occlusion scenarios by maintaining performance despite missing FKP components. Spatial attention mechanisms further enhance classification accuracy by prioritizing the most informative regions. Seventeen pretrained deep neural networks were evaluated for their effectiveness in classifying FKPs, with experimental results consistently demonstrating the superior performance of the ViM model. ViM exemplifies an advanced deep learning approach for biometric applications, combining high precision with efficient resource usage. Its versatile design – incorporating bidirectional SSMs for global context modeling and position embeddings for spatial awareness – extends its applicability to visual tasks beyond FKP identification. However, users should take its complexity and resource requirements into account for practical implementation. • Vision Mamba, a robust deep learning model for Personal Authentication based on Finger Knuckle Print. • Vision Mamba has outperformed in accuracy and computation complexity all previously reported findings from deep learning models. • Achieved over 99.1% accuracy with simpler architectural complexity, optimizing the performance and the computational efficiency.

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Publication Details

Journal
Franklin Open
Published
2025-04-23
DOI
https://doi.org/10.1016/j.fraope.2025.100261
Citations
1
Primary Topic
Biometric Identification and Security
Type
article
Field-Weighted Citation Impact
1.49
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article

Finger Knuckle Print classification: Leveraging vision Mamba for low complexity and high accuracy

Hanqi Zhuang, Thamer Alshammari, Ali Salem Altaher, Basmh Alkanjr et al.
1 citations
Franklin Open
Biometric Identification and Security
1.49
article

Finger Knuckle Print classification: Leveraging vision Mamba for low complexity and high accuracy

Hanqi Zhuang, Thamer Alshammari, Ali Salem Altaher, Basmh Alkanjr, Chiron Bang, Ahmed Altaher, Mohammed G. Al-Jassani, Hasan Altaher, Hawraa Moamin
article en
1 citations

Abstract

Although FKP has been recognized as a viable alternative to other biometric modalities, its adoption remains in the early stages due to its accuracy being lower than that of more competitive options. This research aims to bridge this performance gap by presenting an advancement in the classification of Finger Knuckle Prints (FKPs) using the Vision Mamba (ViM) model. The experimental study, conducted on a dataset from Hong Kong Polytechnic University containing 7,920 images from 165 individuals, evaluated the ViM model’s performance against several pretrained classification models. ViM achieved an impressive accuracy of 99.1%, outperforming other models such as AlexNet (96.2%), SCNN (98.3%), and EfficientNet (98.0%), highlighting its superior capability in FKP classification. With around 7 million parameters, ViM balances complexity and performance, engineered specifically to capture fine-grained FKP features, such as texture and line patterns. Its use of weight decay mitigates overfitting, and it demonstrates resilience in occlusion scenarios by maintaining performance despite missing FKP components. Spatial attention mechanisms further enhance classification accuracy by prioritizing the most informative regions. Seventeen pretrained deep neural networks were evaluated for their effectiveness in classifying FKPs, with experimental results consistently demonstrating the superior performance of the ViM model. ViM exemplifies an advanced deep learning approach for biometric applications, combining high precision with efficient resource usage. Its versatile design – incorporating bidirectional SSMs for global context modeling and position embeddings for spatial awareness – extends its applicability to visual tasks beyond FKP identification. However, users should take its complexity and resource requirements into account for practical implementation. • Vision Mamba, a robust deep learning model for Personal Authentication based on Finger Knuckle Print. • Vision Mamba has outperformed in accuracy and computation complexity all previously reported findings from deep learning models. • Achieved over 99.1% accuracy with simpler architectural complexity, optimizing the performance and the computational efficiency.

Franklin OpenVol. 11
Jouf University (SA), Middle Technical University (IQ), Ministry of Higher Education and Scientific Research (IQ), Nahrain University (IQ), Florida Atlantic University (US)
Openalex Percentile: Top 20%
Biometric Identification and Security
1.49
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