Forearm Ultrasound Based Gesture Recognition on Edge

Ultrasound imaging of the forearm has demon-strated significant potential for accurate hand gesture classification. Despite this progress, there has been limited focus on developing a stand -alone end-to-end gesture recognition system which makes it mobile, real-time and more user friendly. To bridge this gap, this paper explores the deployment of deep neural networks for forearm ultrasound-based hand gesture recognition on edge devices. Utilizing quantization techniques, we achieve substantial reductions in model size while maintaining high accuracy and low latency. Our best model, with Float16 quantization, achieves a test accuracy of 92% and an inference time of 0.31 seconds on a Raspberry Pi. These results demonstrate the feasibility of efficient, real-time gesture recognition on resource-limited edge devices, paving the way for wearable ultrasound-based systems.

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Publication Details

Published
2024-10-15
DOI
https://doi.org/10.1109/bsn63547.2024.10780669
Citations
4
Primary Topic
Hand Gesture Recognition Systems
Type
article
Field-Weighted Citation Impact
1.49
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article

Forearm Ultrasound Based Gesture Recognition on Edge

Bashima Islam, Keshav Bimbraw, Haichong K. Zhang
4 citations
Hand Gesture Recognition Systems
1.49
article

Forearm Ultrasound Based Gesture Recognition on Edge

Bashima Islam, Keshav Bimbraw, Haichong K. Zhang
article en
4 citations

Abstract

Ultrasound imaging of the forearm has demon-strated significant potential for accurate hand gesture classification. Despite this progress, there has been limited focus on developing a stand -alone end-to-end gesture recognition system which makes it mobile, real-time and more user friendly. To bridge this gap, this paper explores the deployment of deep neural networks for forearm ultrasound-based hand gesture recognition on edge devices. Utilizing quantization techniques, we achieve substantial reductions in model size while maintaining high accuracy and low latency. Our best model, with Float16 quantization, achieves a test accuracy of 92% and an inference time of 0.31 seconds on a Raspberry Pi. These results demonstrate the feasibility of efficient, real-time gesture recognition on resource-limited edge devices, paving the way for wearable ultrasound-based systems.

Worcester Polytechnic Institute (US)
Openalex Percentile: Top 17%
Hand Gesture Recognition Systems
1.49
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