Two- and Multi-dimensional Curve Fitting using Bayesian Inference
Andrew W. Steiner

TL;DR
This paper develops a Bayesian inference framework for fitting curves in data, introducing a metric embedding approach that generalizes existing methods and compares favorably to frequentist and Bayesian alternatives.
Contribution
It introduces a novel formalism for Bayesian curve fitting that incorporates metric embeddings, extending previous approaches and providing a unified framework.
Findings
The formalism naturally derives the metric used in curve embedding.
Comparison shows advantages over traditional frequentist methods.
Framework generalizes existing Bayesian and frequentist curve fitting techniques.
Abstract
Fitting models to data using Bayesian inference is quite common, but when each point in parameter space gives a curve, fitting the curve to a data set requires new nuisance parameters, which specify the metric embedding the one-dimensional curve into the higher-dimensional space occupied by the data. A generic formalism for curve fitting in the context of Bayesian inference is developed which shows how the aforementioned metric arises. The result is a natural generalization of previous works, and is compared to oft-used frequentist approaches and similar Bayesian techniques.
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Taxonomy
TopicsGaussian Processes and Bayesian Inference · Statistical and numerical algorithms · Neural Networks and Applications
