Sequential Inverse Problems Bayesian Principles and the Logistic Map Example

Bayesian statistics provides a general framework for solving inverse problems, but is not without interpretation and implementation problems. This paper discusses difficulties arising from the fact that forward models are always in error to some extent. Using a simple example based on the one-dimens...

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Main Authors: Duan, L, Farmer, C, Moroz, I
Other Authors: Simos, T
Format: Conference item
Published: AMER INST PHYSICS 2010
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author Duan, L
Farmer, C
Moroz, I
author2 Simos, T
author_facet Simos, T
Duan, L
Farmer, C
Moroz, I
author_sort Duan, L
collection OXFORD
description Bayesian statistics provides a general framework for solving inverse problems, but is not without interpretation and implementation problems. This paper discusses difficulties arising from the fact that forward models are always in error to some extent. Using a simple example based on the one-dimensional logistic map, we argue that, when implementation problems are minimal, the Bayesian framework is quite adequate. In this paper the Bayesian Filter is shown to be able to recover excellent state estimates in the perfect model scenario (PMS) and to distinguish the PMS from the imperfect model scenario (EMS). Through a quantitative comparison of the way in which the observations are assimilated in both the PMS and the IMS scenarios, we suggest that one can, sometimes, measure the degree of imperfection.
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spelling oxford-uuid:9d5fe85a-8dd3-4285-941d-a7d6d060de412022-03-27T00:42:41ZSequential Inverse Problems Bayesian Principles and the Logistic Map ExampleConference itemhttp://purl.org/coar/resource_type/c_5794uuid:9d5fe85a-8dd3-4285-941d-a7d6d060de41Symplectic Elements at OxfordAMER INST PHYSICS2010Duan, LFarmer, CMoroz, ISimos, TPsihoyios, GTsitouras, CBayesian statistics provides a general framework for solving inverse problems, but is not without interpretation and implementation problems. This paper discusses difficulties arising from the fact that forward models are always in error to some extent. Using a simple example based on the one-dimensional logistic map, we argue that, when implementation problems are minimal, the Bayesian framework is quite adequate. In this paper the Bayesian Filter is shown to be able to recover excellent state estimates in the perfect model scenario (PMS) and to distinguish the PMS from the imperfect model scenario (EMS). Through a quantitative comparison of the way in which the observations are assimilated in both the PMS and the IMS scenarios, we suggest that one can, sometimes, measure the degree of imperfection.
spellingShingle Duan, L
Farmer, C
Moroz, I
Sequential Inverse Problems Bayesian Principles and the Logistic Map Example
title Sequential Inverse Problems Bayesian Principles and the Logistic Map Example
title_full Sequential Inverse Problems Bayesian Principles and the Logistic Map Example
title_fullStr Sequential Inverse Problems Bayesian Principles and the Logistic Map Example
title_full_unstemmed Sequential Inverse Problems Bayesian Principles and the Logistic Map Example
title_short Sequential Inverse Problems Bayesian Principles and the Logistic Map Example
title_sort sequential inverse problems bayesian principles and the logistic map example
work_keys_str_mv AT duanl sequentialinverseproblemsbayesianprinciplesandthelogisticmapexample
AT farmerc sequentialinverseproblemsbayesianprinciplesandthelogisticmapexample
AT morozi sequentialinverseproblemsbayesianprinciplesandthelogisticmapexample