A Web-Based AR-Powered Virtual Eyewear Try-On System

This research presents a web-based virtual try-on system for eyewear that aims to enhance the online shopping experience through computer vision and augmented reality techniques. The platform allows users to analyze their face shape and receive personalized eyewear recommendations, along with the ability to try on virtual glasses in real time. The system employs MTCNN to accurately retrieve facial regions from images, which are then processed by the VGG-16 model to classify face shapes into 5 distinct categories: oval, round, square, heart-shaped, and oblong. MediaPipe is used for facial feature localization, enabling calculation of pupil distance (PD) calculations and alignment of virtual glasses, and Three.js provides immersive 3D visualization for realistic try-on experiences. Performance evaluation proves a face shape classification accuracy of 92%, with occasional misclassifications for similar facial types. The augmented reality module achieves an average Intersection over Union (IoU) of 81% and a width error margin of approximately 5%, ensuring correct and visually appealing overlay alignment. By integrating face shape analysis and virtual try-on capabilities, this research contributes to advancing interactive and personalized solutions in the e-commerce domain, bridging the gap between traditional in-store and digital shopping experiences.

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Publication Details

Journal
International Journal on Engineering Technology
Published
2025-05-19
DOI
https://doi.org/10.3126/injet.v2i2.78599
Primary Topic
Face recognition and analysis
Type
article
Field-Weighted Citation Impact
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article

A Web-Based AR-Powered Virtual Eyewear Try-On System

Sushma Singh, Prabin Bikram Thapa, S Shrestha, Pratap Niraula et al.
International Journal on Engineering Technology
Face recognition and analysis
article

A Web-Based AR-Powered Virtual Eyewear Try-On System

Sushma Singh, Prabin Bikram Thapa, S Shrestha, Pratap Niraula, Sabin Thapa Magar
article en

Abstract

This research presents a web-based virtual try-on system for eyewear that aims to enhance the online shopping experience through computer vision and augmented reality techniques. The platform allows users to analyze their face shape and receive personalized eyewear recommendations, along with the ability to try on virtual glasses in real time. The system employs MTCNN to accurately retrieve facial regions from images, which are then processed by the VGG-16 model to classify face shapes into 5 distinct categories: oval, round, square, heart-shaped, and oblong. MediaPipe is used for facial feature localization, enabling calculation of pupil distance (PD) calculations and alignment of virtual glasses, and Three.js provides immersive 3D visualization for realistic try-on experiences. Performance evaluation proves a face shape classification accuracy of 92%, with occasional misclassifications for similar facial types. The augmented reality module achieves an average Intersection over Union (IoU) of 81% and a width error margin of approximately 5%, ensuring correct and visually appealing overlay alignment. By integrating face shape analysis and virtual try-on capabilities, this research contributes to advancing interactive and personalized solutions in the e-commerce domain, bridging the gap between traditional in-store and digital shopping experiences.

International Journal on Engineering TechnologyVol. 2(2)
Chhatrapati Shahu Ji Maharaj University (IN), Kantipur Engineering College
Openalex Percentile: Top 91%
Face recognition and analysis
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