From Data to Insights: A Covariate Analysis of the IARPA BRIAR Dataset for Multimodal Biometric Recognition Algorithms at Altitude and Range

This paper examines covariate effects on fused whole body biometrics performance in the IARPA BRIAR dataset, specifically focusing on UAV platforms, elevated positions, and distances up to 1000 meters. The dataset includes outdoor videos compared with indoor images and controlled gait recordings. Normalized raw fusion scores relate directly to predicted false accept rates (FAR), offering an intuitive means for interpreting model results. A linear model is developed to predict biometric algorithm scores, analyzing their performance to identify the most influential covariates on accuracy at altitude and range. Weather factors like temperature, wind speed, solar loading, and turbulence are also investigated in this analysis. The study found that resolution and camera distance best predicted accuracy and findings can guide future research and development efforts in long-range/elevated/UAV biometrics and support the creation of more reliable and robust systems for national security and other critical domains.

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Published
2024-09-15
DOI
https://doi.org/10.1109/ijcb62174.2024.10744522
Citations
3
Primary Topic
Face recognition and analysis
Type
article
Field-Weighted Citation Impact
0.75

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article

From Data to Insights: A Covariate Analysis of the IARPA BRIAR Dataset for Multimodal Biometric Recognition Algorithms at Altitude and Range

David Bolme, Nell Barber, Deniz Aykac, Joel Brogan et al.
3 citations
Face recognition and analysis
0.75
article

From Data to Insights: A Covariate Analysis of the IARPA BRIAR Dataset for Multimodal Biometric Recognition Algorithms at Altitude and Range

David Bolme, Nell Barber, Deniz Aykac, Joel Brogan, Laura Davies, David Cornett, Bob Zhang, Ryan Shivers
article en
3 citations

Abstract

This paper examines covariate effects on fused whole body biometrics performance in the IARPA BRIAR dataset, specifically focusing on UAV platforms, elevated positions, and distances up to 1000 meters. The dataset includes outdoor videos compared with indoor images and controlled gait recordings. Normalized raw fusion scores relate directly to predicted false accept rates (FAR), offering an intuitive means for interpreting model results. A linear model is developed to predict biometric algorithm scores, analyzing their performance to identify the most influential covariates on accuracy at altitude and range. Weather factors like temperature, wind speed, solar loading, and turbulence are also investigated in this analysis. The study found that resolution and camera distance best predicted accuracy and findings can guide future research and development efforts in long-range/elevated/UAV biometrics and support the creation of more reliable and robust systems for national security and other critical domains.

Oak Ridge National Laboratory (US)
U.S. Department of Energy, Battelle, Office of the Director of National Intelligence, UT-Battelle, Office of the Director, Office of Science, Intelligence Advanced Research Projects Activity, Oak Ridge National Laboratory
Climate action
Openalex Percentile: Top 27%
Face recognition and analysis
0.75
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From Data to Insights: A Covariate Analysis of the IARPA BRIAR Dataset for Multimodal Biometric Recognition Algorithms at Altitude and Range — David Bolme, Nell Barber, et al. · (2024) | TGRS Research Map | TGRS