Comparison of sequential data analysis and functional data analysis for locomotor adaptation

Learning rates for skills such as walking may depend on circumstances or time, while incentivization with punishments or rewards may affect human skill learning. We consider a state space model for dynamically changed learning rates and figure out the effect of incentivization on the learning rates by utilizing a dynamically weighted particle filter. However, estimations of model parameters, including the learning rate, require a demanding computational burden, especially when the data are collected over a long period. To overcome computational difficulty, we utilize an efficient sequential Monte Carlo method, dynamically weighted particle filter, in the estimations of model parameters. Alternatively, we consider a functional data analysis for the learning rates and the effect of the incentivization. Two approaches have led to reasonable estimations of learning rates. We present the estimated learning rates and the effect of incentivization on the learning rates from two approaches, as well as the comparisons of their results.

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Publication Details

Journal
PLoS ONE
Published
2025-08-29
DOI
https://doi.org/10.1371/journal.pone.0329940
Primary Topic
Control Systems and Identification
Type
article
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article

Comparison of sequential data analysis and functional data analysis for locomotor adaptation

Christopher M. Hill, Kevin P. Kane, Duchwan Ryu, Torin Quinlivan
PLoS ONE
Control Systems and Identification
article

Comparison of sequential data analysis and functional data analysis for locomotor adaptation

Christopher M. Hill, Kevin P. Kane, Duchwan Ryu, Torin Quinlivan
article en

Abstract

Learning rates for skills such as walking may depend on circumstances or time, while incentivization with punishments or rewards may affect human skill learning. We consider a state space model for dynamically changed learning rates and figure out the effect of incentivization on the learning rates by utilizing a dynamically weighted particle filter. However, estimations of model parameters, including the learning rate, require a demanding computational burden, especially when the data are collected over a long period. To overcome computational difficulty, we utilize an efficient sequential Monte Carlo method, dynamically weighted particle filter, in the estimations of model parameters. Alternatively, we consider a functional data analysis for the learning rates and the effect of the incentivization. Two approaches have led to reasonable estimations of learning rates. We present the estimated learning rates and the effect of incentivization on the learning rates from two approaches, as well as the comparisons of their results.

PLoS ONEVol. 20(8)
Northern Illinois University (US), Louisiana State University (US), Knox College (US)
Openalex Percentile: Top 72%
Control Systems and Identification
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Comparison of sequential data analysis and functional data analysis for locomotor adaptation — Christopher M. Hill, Kevin P. Kane, et al. · PLoS ONE (2025) | TGRS Research Map | TGRS