Alignment Free and Distortion Robust Iris Recognition
Min Ren, Caiyong Wang, Yunlong Wang, Zhenan Sun, Tieniu Tan

TL;DR
This paper introduces AFINet, a deep learning approach that achieves alignment-free and distortion-robust iris recognition in unconstrained environments by using NetVLAD encoding and deformable convolutions.
Contribution
The paper proposes a novel deep learning framework combining NetVLAD and deformable convolutions for robust, alignment-free iris recognition in challenging, real-world conditions.
Findings
AFINet outperforms existing iris recognition methods on public datasets.
The method effectively handles head pose variations and texture distortions.
Extensive experiments validate the robustness and accuracy of the approach.
Abstract
Iris recognition is a reliable personal identification method but there is still much room to improve its accuracy especially in less-constrained situations. For example, free movement of head pose may cause large rotation difference between iris images. And illumination variations may cause irregular distortion of iris texture. To match intra-class iris images with head rotation robustly, the existing solutions usually need a precise alignment operation by exhaustive search within a determined range in iris image preprosessing or brute force searching the minimum Hamming distance in iris feature matching. In the wild, iris rotation is of much greater uncertainty than that in constrained situations and exhaustive search within a determined range is impracticable. This paper presents a unified feature-level solution to both alignment free and distortion robust iris recognition in the…
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Taxonomy
TopicsBiometric Identification and Security · Face recognition and analysis · Forensic and Genetic Research
MethodsDeformable Convolution · Convolution
