Cross-day analysis of Multicode Surface Electromyography based Biometrics for Personal Identification
Summary
Surface electromyography (sEMG) offers robust, spoof-resistant personal identification. A multicode framework using sEMG gesture data significantly improves cross-day identification accuracy, outperforming single-gesture methods.
Area of Science:
- Biometrics
- Signal Processing
- Human-Computer Interaction
Background:
- Surface electromyography (sEMG) is a novel biometric trait for personal identification.
- sEMG offers dual-mode security: individual uniqueness (biometric-mode) and gesture-specific patterns (knowledge-mode).
- Previous studies on sEMG multicode frameworks were limited by single-day data and small participant groups.
Purpose of the Study:
- To evaluate the effectiveness of a multicode surface electromyography (sEMG) biometric framework for personal identification.
- To investigate the performance of sEMG-based identification in a cross-day scenario.
- To determine the optimal fusion scheme (score, rank, or decision) for multicode sEMG biometrics.
Main Methods:
- Collected wrist sEMG data from 43 participants over three separate days.
- Performed cross-day analyses using training and testing data from different days.
- Investigated three fusion levels: score-level, rank-level, and decision-level fusion.
Main Results:
- The score-level fusion scheme achieved a median rank-1 accuracy of 77.9% and rank-5 accuracy of 99.6%.
- These accuracies were significantly higher (p<0.001) than those obtained from single-code gestures.
- The multicode sEMG biometric framework demonstrated superior identification performance in cross-day evaluations.
Conclusions:
- The multicode sEMG biometric framework provides enhanced identification performance in realistic cross-day scenarios.
- Score-level fusion is an effective strategy for improving sEMG-based personal identification accuracy.
- sEMG biometrics, particularly using a multicode approach, present a promising spoof-resistant identification solution.
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