logo

Menu

Tracks

SpecialSession: Computational Intelligence Methods for Complex, Compositional, and Longitudinal Microbiome Data in One Health

Computational Intelligence Methods for Complex, Compositional, and Longitudinal Microbiome Data in One Health

Marta AvalosMarta Avalos
Simon LabartheSimon Labarthe
Cristian MEZACristian MEZA

The rapid expansion of microbiome research across human, animal, and environmental systems has generated complex, high-dimensional datasets that challenge conventional analytical frameworks. Microbiome measurements typically originate from zero-inflated count data that are subsequently normalized to enable cross-sample comparisons, leading to compositional structures. Such representations induce inherent dependencies among features and violate assumptions underlying many classical statistical methods based on correlations or covariances. A wide range of normalization strategies—such as centered, additive, or isometric log-ratio transformations and their robust variants—are currently used, often without clear consensus or full understanding of their analytical consequences.

Microbial ecosystems are also inherently dynamic. The microbiome can vary substantially within the same individual over time, making longitudinal designs essential for capturing temporal patterns and causal mechanisms. However, these studies introduce additional methodological challenges, including intra-individual correlation, temporal dependence, irregular sampling, and increased model complexity.

This Special Session aims to provide a dedicated forum for advances in bioinformatics, biostatistics, and computational intelligence that address sparsity, compositional constraints, temporal structure, high dimensionality, and the intricate interaction networks linking bacteria, fungi, and other microorganisms across ecosystems.

By fostering interdisciplinary collaboration within a One Health perspective, the session seeks to promote robust, interpretable, and scalable analytical strategies that advance microbiome science and strengthen its impact on human, animal, and environmental health.

Topics of interest include, but are not limited to:

Statistical and computational methods for compositional dataZero-inflated and sparse modeling approachesNormalization and transformation strategiesLongitudinal and time-series modelingMethods for correlated and repeated measurementsHigh-dimensional inference and feature selectionMachine learning and AI for microbiome analysisNetwork inference and microbial interaction modelingMulti-kingdom microbiome studiesMulti-omics integrationCausal inference and predictive modelingRobustness, interpretability, and reproducibilityScalable algorithms and computational pipelinesHealth / One Health applications

Contacts