Computer Vision Informed Parameter Estimation

The proposed computer vision (CV) informed parameter estimation pipeline is capable of generating parameter estimates for a selected linear dynamic system, this is accomplished by (1) collecting a time-series dataset of a system’s physical motion, (2) relating the captured motion to a designed physics-based model, and (3) and estimating the most probable set of parameters that represents the observed motion using Bayesian inference. This analysis provides a fundamental understanding of the system’s intrinsic properties that enables the refinement and generation of new system affordances. Leveraging this additional knowledge, external learning systems may use this physics-based approach to make predictions of a system’s potential environmental interactions. We compare the results of our generalized approach with those of a handcrafted solution [1] designed for a similarly constructed experiment. Our experiments reveal a MAPE of 3.962% highlighting the approach’s robustness given a time-series dataset subject to additive-white Gaussian noise (AWGN). Github: https://tinyurl.com/CVIPE2025

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Published
2025-08-17
DOI
https://doi.org/10.1109/case58245.2025.11163858
Primary Topic
Image and Object Detection Techniques
Type
article
Field-Weighted Citation Impact
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article

Computer Vision Informed Parameter Estimation

Mónica Hernández, Ankur Mehta, Brair Tilboon Elberier
Image and Object Detection Techniques
article

Computer Vision Informed Parameter Estimation

Mónica Hernández, Ankur Mehta, Brair Tilboon Elberier
article en

Abstract

The proposed computer vision (CV) informed parameter estimation pipeline is capable of generating parameter estimates for a selected linear dynamic system, this is accomplished by (1) collecting a time-series dataset of a system’s physical motion, (2) relating the captured motion to a designed physics-based model, and (3) and estimating the most probable set of parameters that represents the observed motion using Bayesian inference. This analysis provides a fundamental understanding of the system’s intrinsic properties that enables the refinement and generation of new system affordances. Leveraging this additional knowledge, external learning systems may use this physics-based approach to make predictions of a system’s potential environmental interactions. We compare the results of our generalized approach with those of a handcrafted solution [1] designed for a similarly constructed experiment. Our experiments reveal a MAPE of 3.962% highlighting the approach’s robustness given a time-series dataset subject to additive-white Gaussian noise (AWGN). Github: https://tinyurl.com/CVIPE2025

Embedded Systems (United States) (US)
Openalex Percentile: Top 74%
Image and Object Detection Techniques
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Computer Vision Informed Parameter Estimation — Mónica Hernández, Ankur Mehta, et al. · (2025) | TGRS Research Map | TGRS