Eduard Kejnovský

This study tests a 'nowhere-to-hide' model linking centromere architecture to LTR retrotransposon dynamics, finding that holocentric chromosomes show different patterns of element persistence and removal compared to monocentric ones.

The paper characterizes non-B DNA motifs in T2T genomes of apes, showing their enrichment in specific genomic regions and potential roles in genome function.

The paper uses machine learning to classify plant LTR retrotransposons and identifies biologically relevant motifs through explainability analysis.

The paper identifies repeat-based holocentromeres in Luzula sylvatica and proposes mechanisms for the evolutionary transition from monocentric to holocentric chromosomes.

The paper develops a Hi-C data analysis pipeline to study repeat family interactions in plant genome 3D organization, finding preferential homotypic interactions among ribosomal DNA, transposons, and some LTR retrotransposons.

The paper uses long-read sequencing to analyze how non-B DNA structures affect DNA polymerization speed and error rates across the human genome.