On successful completion of this subject, students should be able to:

1. Utilise genomics, transcriptomics, proteomics and metabolomics in profiling cell processes and phenotype.
2. Explain how technological advances enable connectivity of omic databases and advances in computational cell modelling.
3. Compare and contrast �eomic�f features of plant, animal and microbial cells.
4. Describe and annotate genomes, model transcriptomic responses in the context of cellular processes.
5. Develop cellular models through extracting information, managing and organising data
6. Establish the role of in-silico studies underpinning genetic engineering and biotechnology and its application industry and the research sectors.
7. Communicate the findings of investigations within existing legal and ethical frameworks

1. Profiling genomic, transcriptomic, proteomic and metabolomics data in the process of establishing workflow to develop model cell systems.
2. Technologies that enable sequencing of macromolecules, processes and computational resources.
3. Features of genomes, transcriptomes, proteomes and metabolomes, their linkage in the context of computational modelling.
4. Application of bioinformatic tools within an online environment and visual interfaces to acquire, judge, and synthesise biological information.
5. Interrogation of functional pathways and demonstration of in-silico genetic engineering approaches.
6. Professional presentation skills for industry, government, and academia.