This article provides a systematic comparison of tree-based and SNP-based methodologies for detecting introgression, a key evolutionary process with significant implications for adaptation and disease research.
This article provides a comprehensive comparison of Maximum Likelihood (ML) and Bayesian methods for detecting introgressed genomic regions, a critical task in evolutionary genomics and biomedical research.
This article provides a comprehensive comparison for researchers and bioinformaticians between the widely used D-statistic (ABBA-BABA test) and modern phylogenetic network methods for detecting reticulate evolution.
This article provides a systematic benchmark of PhyloNet-HMM against contemporary introgression detection methods, addressing critical needs for researchers and drug development professionals working with genomic data.
This article provides a comprehensive evaluation of two leading coalescent-based species tree estimation methods, ASTRAL and SVDquartets.
This article provides a comprehensive guide for researchers and drug development professionals on the critical issue of substitution rate variation in phylogenetic introgression testing.
Phylogenomic introgression analysis is pivotal for understanding evolutionary histories, yet missing data remains a significant challenge that can bias species tree estimation and introgression detection.
Accurately identifying true introgression is critical for evolutionary studies and biomedical research, yet it is frequently confounded by false positives from ancestral polymorphism and selection.
This article explores cutting-edge parameter optimization techniques transforming phylogenetic network inference, addressing critical computational bottlenecks in analyzing evolutionary relationships.
Accurate gene tree inference is foundational for evolutionary studies, drug target discovery, and understanding disease mechanisms, yet it is highly dependent on the quality of input sequence alignments.