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Main Authors: McCoy, Stephen, McBride, Daniel, McCullough, D. Katie, Calfee, Benjamin C., Zinser, Erik, Talmy, David, Sgouralis, Ioannis
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2504.02581
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author McCoy, Stephen
McBride, Daniel
McCullough, D. Katie
Calfee, Benjamin C.
Zinser, Erik
Talmy, David
Sgouralis, Ioannis
author_facet McCoy, Stephen
McBride, Daniel
McCullough, D. Katie
Calfee, Benjamin C.
Zinser, Erik
Talmy, David
Sgouralis, Ioannis
contents We develop and apply a learning framework for parameter estimation in initial value problems that are assessed only indirectly via aggregate data such as sample means and/or standard deviations. Our comprehensive framework follows Bayesian principles and consists of specialized Markov chain Monte Carlo computational schemes that rely on modified Hamiltonian Monte Carlo to align with constraints induced by summary statistics and a novel elliptical slice sampler adapted to the parameters of biological models. We benchmark our methods with synthetic data on microbial growth in batch culture and test them with real growth curve data from laboratory replication experiments on $\textit{Prochlorococcus}$ microbes. The results indicate that our learning framework can utilize experimental or historical data and lead to robust parameter estimation and data assimilation in ODE models that outperform least-squares fitting.
format Preprint
id arxiv_https___arxiv_org_abs_2504_02581
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Quantitative assessment of biological dynamics with aggregate data
McCoy, Stephen
McBride, Daniel
McCullough, D. Katie
Calfee, Benjamin C.
Zinser, Erik
Talmy, David
Sgouralis, Ioannis
Quantitative Methods
We develop and apply a learning framework for parameter estimation in initial value problems that are assessed only indirectly via aggregate data such as sample means and/or standard deviations. Our comprehensive framework follows Bayesian principles and consists of specialized Markov chain Monte Carlo computational schemes that rely on modified Hamiltonian Monte Carlo to align with constraints induced by summary statistics and a novel elliptical slice sampler adapted to the parameters of biological models. We benchmark our methods with synthetic data on microbial growth in batch culture and test them with real growth curve data from laboratory replication experiments on $\textit{Prochlorococcus}$ microbes. The results indicate that our learning framework can utilize experimental or historical data and lead to robust parameter estimation and data assimilation in ODE models that outperform least-squares fitting.
title Quantitative assessment of biological dynamics with aggregate data
topic Quantitative Methods
url https://arxiv.org/abs/2504.02581