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Multivariate Bayesian Inversion for Classification and Regression

Soch, J.; Allefeld, C.

2025-05-14 neuroscience
10.1101/2025.05.09.653015 bioRxiv
Show abstract

We propose the statistical modelling approach to supervised learning (i.e. predicting labels from features) as an alternative to algorithmic machine learning (ML). The approach is demonstrated by employing a multivariate general linear model (MGLM) describing the effects of labels on features, possibly accounting for covariates of no interest, in combination with prior distributions on the model parameters. ML "training" is translated into estimating the MGLM parameters via Bayesian inference and ML "testing" or application is translated into Bayesian model comparison - a reciprocal relationship we refer to as multivariate Bayesian inversion (MBI). We devise MBI algorithms for the standard cases of supervised learning, discrete classification and continuous regression, derive novel classification rules and regression predictions, and use practical examples (simulated and real data) to illustrate the benefits of the statistical modelling approach: interpretability, incorporation of prior knowledge, and probabilistic predictions. We close by discussing further advantages, disadvantages and the future potential of MBI.

Published in International Journal of Data Science and Analytics · not in our set (fewer than 10 published preprints to learn from) · training set

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