G3 Genes Genomes GeneticsGenomicsPeer-reviewed journal article
Somy evolution in the honey bee infecting trypanosomatid parasite, Lotmaria passim
Lindsey M. MarkowitziD, Anthony NearmaniD, Zexuan ZhaoiD, Dawn L. BoncristianiiD, Anzhelika ButenkoiD, Luis Miguel De PablosiD, Arturo MaríniD, Guang XuiD, Carlos A. MachadoiD, Ryan S. SchwarziD, Evan C. Palmer‐YoungiD, Jay Daniel EvansiD
Abstract
Lotmaria passim is a ubiquitous trypanosomatid parasite of honey bees nestled within the medically important subfamily Leishmaniinae. Although this parasite is associated with honey bee colony losses, the original draft genome--which was completed before its differentiation from the closely related Crithidia mellificae--has remained the reference for this species despite lacking improvements from newer methodologies. Here we report the updated sequencing, assembly, and annotation of the BRL type strain (ATCC PRA-422) of Lotmaria passim. The nuclear genome assembly has been resolved into 31 complete chromosomes and is paired with an assembled kinetoplast genome consisting of a maxicircle and 30 minicircle sequences. The assembly spans 33.7 Mb and contains very little repetitive content, from which our annotation of both the nuclear assembly and kinetoplast predicted 10,288 protein-coding genes. Analyses of the assembly revealed evidence of a recent chromosomal duplication event within chromosomes 5 and 6 and provides evidence for a high level of aneuploidy in this species, mirroring the genomic flexibility employed by other trypanosomatids as a means of adaptation to different environments. This high-quality reference can therefore provide insights into adaptations of trypanosomatids to the thermally regulated, acidic, and phytochemically rich honey bee hindgut niche, which offers parallels to the challenges faced by other Leishmaniinae during the challenges they undergo within insect vectors, during infection of mammals, and exposure to antiparasitic drugs throughout their multi-host life cycles. This reference will also facilitate investigations of strain-specific genomic polymorphisms, their role in pathogenicity, and the development of treatments for pollinator infection.
- organism: human
- organism: mouse
- organism: rat
- assay: whole-genome sequencing
- research focus: genome assembly
- research focus: gene regulatory network inference
- research focus: variant calling
- research focus: benchmarking
- approach: statistical model
- approach: experimental assay
- Citations
- 4
- FWCI
- 1.21
- Field percentile
- top 20%
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