Novel chromosome-length genome assemblies of three distinct subspecies of pine marten, sable, and yellow-throated marten (genus Martes, family Mustelidae)
Andrey A. TomarovskyiD, Ruqayya KhaniD, Olga DudchenkoiD, Violetta R. BeklemishevaiD, Polina L. PerelmaniD, Azamat TotikoviD, Natalia A. SerdyukovaiD, Tatiana BulyonkovaiD, Maria A. PobedintsevaiD, Alexei V. AbramoviD, David WeisziD, Aliya R. YakupovaiD, Anna S. ZhukiD, Alexander S. GraphodatskyiD, Roger A. PowelliD, Erez Lieberman AideniD, Klaus‐Peter KoepfliiD, Sergei F. KliveriD
Abstract
The genus Martes consists of medium-sized carnivores within the family Mustelidae that are commonly known as martens, many of which exhibit extensive geographic variation and taxonomic uncertainty. Here, we report chromosome-length genome assemblies for three subspecies, each representing a different marten species: the Tobol sable (M. zibellina zibellina), the Ural pine marten (M. martes uralensis), and the Far East yellow-throated marten (M. flavigula aterrima). Using linked-read sequencing and Hi-C scaffolding, we generated assemblies with total lengths of 2.39-2.45 Gbp, N50 values of 137-145 Mbp, and high BUSCO scores (93.6-96.4%). We identified 19 chromosomal scaffolds for sable and pine marten, and 20 for yellow-throated marten, which agrees with the known karyotypes of these species (2n=38 and 2n=40, respectively). Annotation predicted ~20,000 protein-coding genes per genome, of which >90% were assigned functional names. Repeats encompass 36.9-40.4% of the assemblies, with a prevalence of LINEs and SINEs, and is conservative across the genus. Synteny analysis of our generated and available marten genome assemblies revealed assembly artifacts in previously published assemblies, which we confirmed through investigation of Hi-C contact maps. Among other rearrangements, we verified a sable-specific inversion on chromosome 11 using the published cytogenetic data. Our assemblies broaden the genomic resources available for Martes, extending coverage to geographically distant and taxonomically significant subspecies. Together, they provide a robust framework for assessing intraspecific genetic diversity, identifying signatures of hybridization, and refining the complex taxonomy of the genus. Beyond conservation and evolutionary applications, these references will facilitate comparative genomics across Mustelidae and other carnivorans.
02 /Specification & Classification
Click any tag to browse matching papers- Citations
- 2
- FWCI
- 0.60
- Field percentile
- top 35%
- Organism
- Assay
- Research Focus
- Approach
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Genomics of sable (Martes zibellina) x pine marten (Martes martes) hybridization
Andrey A. Tomarovsky, Azamat Totikov, … Sergei F. Kliver·Genome Biology and EvolutionPeer-reviewed·Jan 23, 2026
- Comparative genomics and phylogenomics of the Mustelinae lineage (Mustelidae, Carnivora)
Azamat Totikov, Andrey A. Tomarovsky, … Sergei F. Kliver·Genome Biology and EvolutionPeer-reviewed·Jan 22, 2026
- Mink by mink: stitching together signatures of subspecies adaptation through a pangenome of threatened mustelids
Aishatu Affini, Hailey Baranowski, … Paul Hapeman·HeredityPeer-reviewed·Apr 1, 2026
- Chromosome-level genome assembly and annotation of the threatened marbled teal (Marmaronetta angustirostris)
Joaquín Ortego, Raquel Pérez López, … Andy J. Green·bioRxiv·May 14, 2026
- A chromosome-scale hybrid genome assembly of the extinct Tasmanian tiger (Thylacinus cynocephalus)
Charles Yakov Feigin, Stephen Frankenberg, Andrew J. Pask·Genome Biology and EvolutionPeer-reviewed·Mar 25, 2022
- Chromosome-level genome assembly of milk thistle (Silybum marianum (L.) Gaertn.)
Kyung Do Kim, Jeehyoung Shim, … Joong Hyoun Chin·Scientific DataPeer-reviewed·Apr 5, 2024