Postdoctoral Fellow - Comparative Genomics: UK
Over the last 10 years, the Mouse Genomes Project has sequenced the most highly used laboratory mouse strains to discover and interpret genetic variation and its effect on phenotypes. This has resulted in the most comprehensive genome-wide maps of genetic and transcriptional variation in mouse (SNPs, indels, structural variation, RNA-editing, and gene expression) [1,2,3]. In 2018, we produced the first draft chromosome scale assembled genome sequences and strain specific gene annotation . This enabled us to discover thousands of novel haplotypes across the Mus lineage, not detectable by reference genome based approaches, identifying enrichment for recent transposable elements that drive recombination in these regions and enrichment for genes involved in immunity, pathogen defence, and sensory functions. In the next phase of the project, we will using third generation sequencing technologies to build reference quality genome sequences that will enable us to expand our understanding of the haplotypic variation through improved sequence assemblies and further understand their association with medically relevant phenotypes by incorporating evidence from sources such as QTL/eQTL mapping studies, pathway analysis, and protein interactions.
 Keane et al. (2011) Mouse genomic variation and its effect on phenotypes and gene regulation, Nature, 477:289-294.
 Danecek et al. (2012) High levels of RNA-editing site conservation amongst 15 laboratory mouse strains, Genome Biology, 13:r26.
 Nellaker et al. (2012) The genomic landscape shaped by selection on transposable elements across 18 mouse strains, Genome Biology, 13:r45.
 Lilue et al. (2018) Sixteen diverse laboratory mouse reference genomes define strain-specific haplotypes and novel functional loci, Nature Genetics, 50(11):1574.
Essential skills and experience include:
- PhD in either Computer Science, Computational Biology, or Bioinformatics
- Demonstrable record in carrying out bioinformatics analysis
- Highly developed unix command line skills
- Proficiency in at least one modern computer programming language
- Second or third generation sequencing
- Ability to plan and work independently
- Excellent communication skills (written and verbal)
You might also have experience in:
- Developing and running complex workflows on large scale compute clusters
- Comparative genomics
- Genetic association studies
- Gene pathway and protein interaction analysis
- Genome assembly or annotation
Informal enquiries can be directed to Prof. Thomas Keane (firstname.lastname@example.org).