Probabilistic inference on noisy time series (PINTS)

Time series models are ubiquitous in science, arising in any situation where researchers seek to understand how a system’s behaviour changes over time. A key problem in time series modelling is inference; determining properties of the underlying system based on observed time series. For both stati...

Full description

Bibliographic Details
Main Authors: Clerx, M, Robinson, M, Lambert, B, Lei, C, Ghosh, S, Mirams, G, Gavaghan, D
Format: Journal article
Published: Ubiquity Press 2019
_version_ 1797058708311638016
author Clerx, M
Robinson, M
Lambert, B
Lei, C
Ghosh, S
Mirams, G
Gavaghan, D
author_facet Clerx, M
Robinson, M
Lambert, B
Lei, C
Ghosh, S
Mirams, G
Gavaghan, D
author_sort Clerx, M
collection OXFORD
description Time series models are ubiquitous in science, arising in any situation where researchers seek to understand how a system’s behaviour changes over time. A key problem in time series modelling is inference; determining properties of the underlying system based on observed time series. For both statistical and mechanistic models, inference involves finding parameter values, or distributions of parameters values, which produce outputs consistent with observations. A wide variety of inference techniques are available and different approaches are suitable for different classes of problems. This variety presents a challenge for researchers, who may not have the resources or expertise to implement and experiment with these methods. PINTS (Probabilistic Inference on Noisy Time Series — https://github.com/pints-team/pints) is an open-source (BSD 3-clause license) Python library that provides researchers with a broad suite of non-linear optimisation and sampling methods. It allows users to wrap a model and data in a transparent and straightforward interface, which can then be used with custom or pre-defined error measures for optimisation, or with likelihood functions for Bayesian inference or maximum-likelihood estimation. Derivative-free optimisation algorithms — which work without harder-to-obtain gradient information — are included, as well as inference algorithms such as adaptive Markov chain Monte Carlo and nested sampling, which estimate distributions over parameter values. By making these statistical techniques available in an open and easy-to-use framework, PINTS brings the power of these modern methods to a wider scientific audience.
first_indexed 2024-03-06T19:54:07Z
format Journal article
id oxford-uuid:24f58bc7-5da1-4b1a-88ce-1e12c9c1e550
institution University of Oxford
last_indexed 2024-03-06T19:54:07Z
publishDate 2019
publisher Ubiquity Press
record_format dspace
spelling oxford-uuid:24f58bc7-5da1-4b1a-88ce-1e12c9c1e5502022-03-26T11:53:07ZProbabilistic inference on noisy time series (PINTS)Journal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:24f58bc7-5da1-4b1a-88ce-1e12c9c1e550Symplectic Elements at OxfordUbiquity Press2019Clerx, MRobinson, MLambert, BLei, CGhosh, SMirams, GGavaghan, D Time series models are ubiquitous in science, arising in any situation where researchers seek to understand how a system’s behaviour changes over time. A key problem in time series modelling is inference; determining properties of the underlying system based on observed time series. For both statistical and mechanistic models, inference involves finding parameter values, or distributions of parameters values, which produce outputs consistent with observations. A wide variety of inference techniques are available and different approaches are suitable for different classes of problems. This variety presents a challenge for researchers, who may not have the resources or expertise to implement and experiment with these methods. PINTS (Probabilistic Inference on Noisy Time Series — https://github.com/pints-team/pints) is an open-source (BSD 3-clause license) Python library that provides researchers with a broad suite of non-linear optimisation and sampling methods. It allows users to wrap a model and data in a transparent and straightforward interface, which can then be used with custom or pre-defined error measures for optimisation, or with likelihood functions for Bayesian inference or maximum-likelihood estimation. Derivative-free optimisation algorithms — which work without harder-to-obtain gradient information — are included, as well as inference algorithms such as adaptive Markov chain Monte Carlo and nested sampling, which estimate distributions over parameter values. By making these statistical techniques available in an open and easy-to-use framework, PINTS brings the power of these modern methods to a wider scientific audience.
spellingShingle Clerx, M
Robinson, M
Lambert, B
Lei, C
Ghosh, S
Mirams, G
Gavaghan, D
Probabilistic inference on noisy time series (PINTS)
title Probabilistic inference on noisy time series (PINTS)
title_full Probabilistic inference on noisy time series (PINTS)
title_fullStr Probabilistic inference on noisy time series (PINTS)
title_full_unstemmed Probabilistic inference on noisy time series (PINTS)
title_short Probabilistic inference on noisy time series (PINTS)
title_sort probabilistic inference on noisy time series pints
work_keys_str_mv AT clerxm probabilisticinferenceonnoisytimeseriespints
AT robinsonm probabilisticinferenceonnoisytimeseriespints
AT lambertb probabilisticinferenceonnoisytimeseriespints
AT leic probabilisticinferenceonnoisytimeseriespints
AT ghoshs probabilisticinferenceonnoisytimeseriespints
AT miramsg probabilisticinferenceonnoisytimeseriespints
AT gavaghand probabilisticinferenceonnoisytimeseriespints