Binning tetraploid genomes into four subgenomes using BUSCO genes.

(A) Using a greedy algorithm, we iterated through contigs from largest to smallest, appending a contig to a haplotypic subgenome if the duplication contributed by that contig does not exceed a specified threshold (x axes in the figure). Single-copy BUSC...

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Bibliographic Details
Main Author:	Amjad Khalaf (22470183) (author)
Other Authors:	Chenxi Zhou (369944) (author), Claudia C. Weber (22470186) (author), Emmelien Vancaester (3631018) (author), Ying Sims (12076085) (author), Alex Makunin (10874350) (author), Thomas C. Mathers (3262077) (author), Dominic E. Absolon (21653669) (author), Jonathan M. D. Wood (17797713) (author), Shane A. McCarthy (3170157) (author), Kamil S. Jaron (12153067) (author), Mark Blaxter (50235) (author), Mara K. N. Lawniczak (7832150) (author)
Published:	2025
Subjects:	Microbiology Genetics Evolutionary Biology Ecology Marine Biology Infectious Diseases Biological Sciences not elsewhere classified quality genome assemblies infected arthropod hosts growing public health chromatin conformation capture obligately intracellular parasites different microsporidian groups xlink "> microsporidia create reference genomes tetraploid genome haplotypes results provide evidence partial microsporidian genomes microsporidia </ p two diploid units microsporidian parasites microsporidian lifecycle tetraploid genomes homeologous genomes complete genomes striking tolerance sexual reproduction sexual cycle segmental duplications scale rearrangements many aspects likely recombine likely organized life project help answer evolution unexplored economic importance diploid lineages dikaryotic cells data indicated darwin tree characterized 14 also observed
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Binning tetraploid genomes into four subgenomes using BUSCO genes.

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