A Novel Framework for Recognizing Air Arabic Text From Wrist Wearable Sensors

This paper presents the development of an innovative Arabic text recognition system designed for wrist wearable sensors. Addressing the need for more intuitive and accessible digital text input methods in Arabic, this project leverages motion sensor technology to capture and interpret wrist movements as handwriting. The primary objective is to create a functional prototype that can accurately decode Arabic script from natural hand movement during writing, eliminating the reliance on traditional input devices and interfaces. The research involves comprehensive stages of system design, including the development of enhanced algorithms for noise reduction, data segmentation, and normalization tailored to capture the subtle nuances of Arabic handwriting dynamics. Additionally, this paper provides an overview of existing technologies and methodologies in both vision-based and sensor-based handwriting recognition. Experimental results have led to the compilation of a dataset of wrist movement patterns, which will support the training and refinement of the recognition algorithms. Key outcomes of this paper include the successful demonstration of the prototype, detailed documentation of the methodology and findings in scholarly publications, and significant advancements in the fields of wearable technology and language processing. This work seeks to push the boundaries of how wearable devices can be utilized and opens new avenues for user interaction in the Arabic-speaking world.

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Publication Details

Published
2025-03-04
DOI
https://doi.org/10.1109/mlhmi66056.2025.00019
Primary Topic
Hand Gesture Recognition Systems
Type
article
Field-Weighted Citation Impact
0.00
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article

A Novel Framework for Recognizing Air Arabic Text From Wrist Wearable Sensors

Ehab I. Taha, Rasha M. Al‐Eidan
Hand Gesture Recognition Systems
article

A Novel Framework for Recognizing Air Arabic Text From Wrist Wearable Sensors

Ehab I. Taha, Rasha M. Al‐Eidan
article en

Abstract

This paper presents the development of an innovative Arabic text recognition system designed for wrist wearable sensors. Addressing the need for more intuitive and accessible digital text input methods in Arabic, this project leverages motion sensor technology to capture and interpret wrist movements as handwriting. The primary objective is to create a functional prototype that can accurately decode Arabic script from natural hand movement during writing, eliminating the reliance on traditional input devices and interfaces. The research involves comprehensive stages of system design, including the development of enhanced algorithms for noise reduction, data segmentation, and normalization tailored to capture the subtle nuances of Arabic handwriting dynamics. Additionally, this paper provides an overview of existing technologies and methodologies in both vision-based and sensor-based handwriting recognition. Experimental results have led to the compilation of a dataset of wrist movement patterns, which will support the training and refinement of the recognition algorithms. Key outcomes of this paper include the successful demonstration of the prototype, detailed documentation of the methodology and findings in scholarly publications, and significant advancements in the fields of wearable technology and language processing. This work seeks to push the boundaries of how wearable devices can be utilized and opens new avenues for user interaction in the Arabic-speaking world.

King Saud University (SA)
Gender equality
Openalex Percentile: Top 82%
Hand Gesture Recognition Systems
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