West Virginia University Genomics Core Facility

You've got data. We turn it into information

Quality Control
All data which comes into the facility, whether we create it or you give it to use, is subject to quality control testing. For sequencing data we primarily use fastQC. We use other tools and tests where approproiate.

RNA-Seq Analysis
RNA-Seq requires many of the same steps as Microarray analysis, but is confounded by not having well-defined, well designed oligos with good annotation, but rather short reads of uncertain origin. A major step in this analysis is aligning the reads to a reference genome or transcriptome, or creating a de novo transcriptome. Once these steps are complete, analysis follows a path very similar to microarray analysis. We use STAR for the mapping, and DESeq2 to calculate fold change and significant differential expression. Partek can also be used for the analysis after mapping is done.
What we need from you
Fastq files, and the experimental design. Also, a reference genome, and hopefully an annotation file (.gff, .gtf, .gtf3).
What you will get from us
Pretty much the same as with the microarray analysis, though the QC figures will be different. If there is sufficient sequence, we can also do an analysis of alternative splicing, and search for novel splice sites.

Polymorphism Analysis
Single Nucleotide Polymorphisms and structural polymorphisms (Copy Number Variants, Presence/Absence variants) can be discovered and characterized by resequencing individuals from species for which a reference genome exists. The can also be characterized for new genomes by assembling those genomes from scratch (de novo assembly).
What we need from you
Fastq files, and, if available, a reference genome, and hopefully an annotation file (.gff, .gtf, .gtf3).
What you will get from us
We will perform the assemblies and provide a list of polymorphisms. If needed, we can provide a summary of the effects of those polymorphisms on protein-coding sequences, assuming an annotation file is provided.

Metagenomic Analysis
Increasingly, entire communities of organisms are being sequenced in bulk from samples collected clinically or in the environment. The microbial compositon of these samples can be determined through bulk sequencing, thereby providiing a relatively unbiased view of the diversity of organisms and genes present in the sample, and how these change with environmental or clinical conditions.
What we need from you
An experimental design, fastq files, and, if available, reference genomes, and annotation files (.gff, .gtf, .gtf3). We also need a reference database that contains sequences of organisms that are likely to be represented in the sample, or at least close relatives.
What you will get from us
We will perform the assemblies of the sequences (amplicons or whole genome shotgun), and will return a phylogenetic profile and/or gene composition for the community, within the limits of the provided reference database.

We will determine the presence, and even relative abundance of, known microRNAs. Finding novel microRNAs, or circular RNA, is something we can do, but it would fall under the category of ‘uncommon tasks’, and would be billed accordingly.

Chromatin immunoprecipitation followed by sequencing determines the genomic binding sites of any protein you have an antibody to. Histone methylation is a popular application of this technique. HITS-CLIP is similar, but immunoprecipitates RNA.
What we need from you
Fastq files and a reference genome.
What you will get from us
Binding sites of your protein.
Microarray Analysis
Microarray analysis generally consists of three parts: normalizing data, calculating fold change and significance, and determining biological significance and pathway analysis. For the first two parts, we primarily use R and Bioconductor. There are several standard procedures we follow to produce publishable results. We also use the Partek Genomics Suite, a commercial product with a graphical interface and automated reference downloading. Partek will do some pathway analysis, though we have not validated its usefulness in that regard. For ontology and pathway analysis we use either DAVID or Ingenuity Pathway Analysis.
What we need from you
If the data is produced in our microarray facility, all we need is the experimental design ie what samples are case vs control, which are biological replicates, which are technical replicates.
If the data is produced elsewhere, in addition to the experimental design we will need all the .cel files produced, as well as the type of array used (this data is encoded in the .cel files, but I like to make sure everything agrees.) Custom arrays will need more information.
What you will get from us
You will get a list of genes with significant changes, GO terms, and possible affected pathways. In addition, we can produce heat maps, clusterings, volcano plots, and various QC figures. This is all quite standard. If your experiment is not so standard, we can adapt our methods to suit your needs.

For questions, help, or to offer a beer, get in touch with the bioinformatician, Niel Infante