Computational Methods in Systems Biology - module definition
Systems Biology: The amount and variety of biological data now available,
together with techniques developed so far have enabled research in
Bioinformatics to move beyond the study of individual biological components
(genes, proteins etc), albeit in a genome-wide context, to attempt to study
how individual parts cooperate in their operation. Bioinformatics has now
moved closer to the area of Systems Biology which seeks to integrate
biological data as an attempt to understand how biological systems function.
By studying the relationships and interactions between various parts of a
biological system it is hoped that an understandable model of the whole system
can be developed.
Prior knowledge: None required, but Basic Bioinformatics useful.
Context:
Bioinformatics Strand, MSc IT, Department of Computing Science, University of
Glasgow.
Aims:
To provide an introduction to the area of Systems Biology
To provide an introduction to the biological background to biochemical networks (metabolic, regulatory, signalling).
To introduce algorithms, tools, techniques and databases for the modelling and analysis of biochemical networks.
To introduce the principles of basic low-throughput biology techniques used by biologists, such as enzyme kinetic measurements, blotting etc.
To introduce the principles of high-throughput techniques and associated databases and analysis, such as mass spectrometry, gene expression array
Machine learning techniques for bioinformatics and systems biology
Intended learning outcomes:
Ability to model various biochemical networks using a variety of techniques.
Ability to use a range of tools, techniques and databases for biochemical network analysis.
Ability to construct databases for biochemical networks.
Understand the principles of analysis of low and high-throughput data sets.
To apply a variety of machine learning techniques to biological data sets.
Delivery: 24 hours lectures and 12 hours labs over 12 weeks.
Assessment: 70% examination, 30% coursework