Hybridization capture using RAD probes (hyRAD), a new tool for performing genomic analyses on museum collection specimens.
Tomasz SuchaniD, Camille Pitteloud, Nadezhda Gerasimova, Anna Kostikova, Sarah Schmid, Nils ArrigoiD, Mila Pajkovic, Michał Ronikier, Nadir Alvarez
Abstract
In the recent years, many protocols aimed at reproducibly sequencing reduced-genome subsets in non-model organisms have been published. Among them, RAD-sequencing is one of the most widely used. It relies on digesting DNA with specific restriction enzymes and performing size selection on the resulting fragments. Despite its acknowledged utility, this method is of limited use with degraded DNA samples, such as those isolated from museum specimens, as these samples are less likely to harbor fragments long enough to comprise two restriction sites making possible ligation of the adapter sequences (in the case of double-digest RAD) or performing size selection of the resulting fragments (in the case of single-digest RAD). Here, we address these limitations by presenting a novel method called hybridization RAD (hyRAD). In this approach, biotinylated RAD fragments, covering a random fraction of the genome, are used as baits for capturing homologous fragments from genomic shotgun sequencing libraries. This simple and cost-effective approach allows sequencing of orthologous loci even from highly degraded DNA samples, opening new avenues of research in the field of museum genomics. Not relying on the restriction site presence, it improves among-sample loci coverage. In a trial study, hyRAD allowed us to obtain a large set of orthologous loci from fresh and museum samples from a non-model butterfly species, with a high proportion of single nucleotide polymorphisms present in all eight analyzed specimens, including 58-year-old museum samples. The utility of the method was further validated using 49 museum and fresh samples of a Palearctic grasshopper species for which the spatial genetic structure was previously assessed using mtDNA amplicons. The application of the method is eventually discussed in a wider context. As it does not rely on the restriction site presence, it is therefore not sensitive to among-sample loci polymorphisms in the restriction sites that usually causes loci dropout. This should enable the application of hyRAD to analyses at broader evolutionary scales.
02 /Specification & Classification
Click any tag to browse matching papersReproducibility 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
- Evaluating hybridization capture with RAD probes as a tool for museum genomics with historical bird specimens
Ethan B. Linck, Zachary R. Hanna, … John Philip Dumbacher·Ecology and EvolutionPeer-reviewed·May 23, 2017
- RAD Capture (Rapture): Flexible and efficient sequence-based genotyping.
Omar A Ali, Sean M O'Rourke, … Michael R Miller·bioRxiv·Dec 19, 2015
- PyRAD: assembly of de novo RADseq loci for phylogenetic analyses
Deren A. R. Eaton·bioRxiv·Dec 3, 2013
- Adapterama III: Quadruple-indexed, double/triple-enzyme RADseq libraries (2RAD/3RAD)
Natalia J. Bayona‐Vásquez, Travis C. Glenn, … Brant C. Faircloth·PeerJPeer-reviewed·Oct 11, 2019
- Adapterama IV: Sequence Capture of Dual-digest RADseq Libraries with Identifiable Duplicates (RADcap)
Sandra Hoffberg, Troy J Kieran, … Travis C Glenn·bioRxiv·Apr 20, 2016
- Achieving high-quality ddRAD-like reference catalogs for non-model species: the power of overlapping paired-end reads.
M. Driller, S. T. Vilaca, … C. J. Mazzoni·bioRxiv·Apr 3, 2020