IRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM

Iris has not seen widespread application as a biometric technique, however superior it is to competitors. Ideal imaging is one of the key challenges preventing such application. Recent solutions rely on near-infrared spectrum – a more resilient alternative given non-ideal images. Solutions as suc...

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Main Author: Prabowo, Harry
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/56335
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:56335
spelling id-itb.:563352021-06-22T07:02:27ZIRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM Prabowo, Harry Indonesia Final Project iris recognition, convolutional neural network, iris segmentation, super-resolution. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/56335 Iris has not seen widespread application as a biometric technique, however superior it is to competitors. Ideal imaging is one of the key challenges preventing such application. Recent solutions rely on near-infrared spectrum – a more resilient alternative given non-ideal images. Solutions as such requires special hardware, hence suppressing adoption. This paper proposes an iris recognition architecture for non-ideal imaging on visible spectrum using convolutional neural network (CNN) due to the semantic biometric features of iris. This paper hypothesizes that superresolution and better segmentation help iris recognition for non-ideal images on visible spectrum, The architecture consists of three modules: (1) segmentation with Mask-RCNN; (2) super-resolution with EDSR; and (3) classification with DenseNet201 as a control module. For comparison, the classic Circle Hough Transform (CHT) for iris segmentation will be used together with the control module as baseline. This paper also explores the relationship between said techniques and recognition performance, while pursuing an effective iris recognition solution on non-ideal visible spectrum imaging. Tests and evaluations are performed with UBIRIS.v2 dataset on platforms designed for end users. Segmentation by cropping irises using Mask-RCNN’s bounding box yields an improvement in accuracy by 1.62 times – averaging at 84.43% in 0.75 seconds. This is further improved by EDSR, increasing the accuracy further by 1.04% while taking 1.47 seconds. Meanwhile, instance segmentation using Mask-RCNN yields an improvement of 1.13 times – averaging at 68.51%, which is further improved by EDSR to 69.72%. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description Iris has not seen widespread application as a biometric technique, however superior it is to competitors. Ideal imaging is one of the key challenges preventing such application. Recent solutions rely on near-infrared spectrum – a more resilient alternative given non-ideal images. Solutions as such requires special hardware, hence suppressing adoption. This paper proposes an iris recognition architecture for non-ideal imaging on visible spectrum using convolutional neural network (CNN) due to the semantic biometric features of iris. This paper hypothesizes that superresolution and better segmentation help iris recognition for non-ideal images on visible spectrum, The architecture consists of three modules: (1) segmentation with Mask-RCNN; (2) super-resolution with EDSR; and (3) classification with DenseNet201 as a control module. For comparison, the classic Circle Hough Transform (CHT) for iris segmentation will be used together with the control module as baseline. This paper also explores the relationship between said techniques and recognition performance, while pursuing an effective iris recognition solution on non-ideal visible spectrum imaging. Tests and evaluations are performed with UBIRIS.v2 dataset on platforms designed for end users. Segmentation by cropping irises using Mask-RCNN’s bounding box yields an improvement in accuracy by 1.62 times – averaging at 84.43% in 0.75 seconds. This is further improved by EDSR, increasing the accuracy further by 1.04% while taking 1.47 seconds. Meanwhile, instance segmentation using Mask-RCNN yields an improvement of 1.13 times – averaging at 68.51%, which is further improved by EDSR to 69.72%.
format Final Project
author Prabowo, Harry
spellingShingle Prabowo, Harry
IRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM
author_facet Prabowo, Harry
author_sort Prabowo, Harry
title IRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM
title_short IRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM
title_full IRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM
title_fullStr IRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM
title_full_unstemmed IRIS RECOGNITION ARCHITECTURE WITH CONVOLUTIONAL NEURAL NETWORK FOR NON-IDEAL IMAGES ON VISIBLE SPECTRUM
title_sort iris recognition architecture with convolutional neural network for non-ideal images on visible spectrum
url https://digilib.itb.ac.id/gdl/view/56335
_version_ 1822930163125452800