Course description
Course information
The School of Science and Technology at Nottingham Trent University is offering a series of short courses within the molecular biosciences, developed specifically for individuals within the Health Service, Pharmaceutical Industry, Biotechnology companies and related SMEs. These three day courses may also be used as a contribution towards a Masters degree.
What do you study?
* Aspects of the genomics of bacteria, viruses, yeast and fungi
* Sequencing genomes: contig construction, genome completion, genome annotation
* Comparative microbial genomics: microbial circular and linear genomes, mega-plasmids, reduced genomes, using a range of case studies
* Diversity and phylogenetic relationships: 16S rDNA sequencing and other conserved sequences; cluster analysis; phylogenetic tree construction
* Community DNA analysis, metagenomics, identification of uncultured organisms
* Location of core genes for metabolism, and virulence
* Analysis of metabolic pathways, structure and function using KEGG.
Assessment
Assessment will comprise an investigation of sequence data using bioinformatics databases, and critique of the findings (100%).
Why study at Nottingham Trent University?
* Expert tuition by researchers, consultants and professionals
* Four month access to NTU student resources.
Your future career
* This course offers a great opportunity for personal development and career progression.
* Masters level training in selected advanced topics within the molecular biosciences.
* The learning skills required to apply the techniques acquired to your workplace and/or future careers.
What do you study?
* Aspects of the genomics of bacteria, viruses, yeast and fungi
* Sequencing genomes: contig construction, genome completion, genome annotation
* Comparative microbial genomics: microbial circular and linear genomes, mega-plasmids, reduced genomes, using a range of case studies
* Diversity and phylogenetic relationships: 16S rDNA sequencing and other conserved sequences; cluster analysis; phylogenetic tree construction
* Community DNA analysis, metagenomics, identification of uncultured organisms
* Location of core genes for metabolism, and virulence
* Analysis of metabolic pathways, structure and function using KEGG.