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Timothy J. Rogers

Researcher at University of Sheffield

Publications -  65
Citations -  759

Timothy J. Rogers is an academic researcher from University of Sheffield. The author has contributed to research in topics: Structural health monitoring & Computer science. The author has an hindex of 10, co-authored 53 publications receiving 394 citations. Previous affiliations of Timothy J. Rogers include University of Wisconsin-Madison.

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Foundations of population-based SHM, Part I : homogeneous populations and forms

TL;DR: A framework is proposed to model a population of nominally-identical systems, such that (complete) datasets are only available from a subset of members.
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Sparse Overlapping Sets Lasso for Multitask Learning and its Application to fMRI Analysis

TL;DR: In this article, the Sparse Overlapping Sets (SOS) lasso, a convex optimization that automatically selects similar features for related learning tasks, is proposed. But it is not suitable for multi-task learning, since features useful in one task are also useful for other tasks.
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A Bayesian non-parametric clustering approach for semi-supervised Structural Health Monitoring

TL;DR: This paper presents a framework based on Bayesian non-parametric clustering, in particular Dirichlet Process (DP) mixture models, for performing SHM tasks in a semi-supervised manner, including an online feature extraction method.
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Probabilistic modelling of wind turbine power curves with application of heteroscedastic Gaussian Process regression

TL;DR: This work proposes the use of a heteroscedastic Gaussian Process model, which exists within a Bayesian framework which exhibits built-in protection against over-fitting and robustness to noisy measurements, and is shown to be effective on data collected from an operational wind turbine.
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Probabilistic active learning : an online framework for structural health monitoring

TL;DR: A novel, probabilistic framework for the classification, investigation and labelling of data is suggested as an online strategy for Structural Health Monitoring, which allows for the definition of a multi-class classifier to aid both damage detection and identification, while using a limited number of the most informative labelled data.