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| RESEARCH > BioScience Computing |

PLEASE NOTE: The BioScience Computing Interest Group is no longer active and this website will be removed at some unspecified time in the future without further warning.

The BioScience Computing Interest Group brings together researchers from different areas of expertise and from different institutions, primarily in London.  The focus of our interest is inter-disciplinary collaborative research in the following two domains:

  1. Computational Biology (Systems Biology) - the application of computer science techniques to improve our knowledge and understanding of complete biological systems.  The "Systems Biology" journal describes Systems Biology as involving "modelling and simulating the complex dynamic interactions between genes, transcripts, proteins, metabolites and cells using integrated systems-based approaches. Encompassing proteomics, transcriptomics, metabolomics and functional genomics, systems biology uses computational and mathematical models to analyse and simulate networks, pathways and the spatial and temporal relationships that give rise to cause and effect in living systems."  Examples of the complete systems of interest are:
    • a cell (e.g. a leukocyte)
    • a single-celled organism (e.g. a diatom)
    • a simple multi-celled organism
    • an organ (e.g. the human liver)
    • a complex organism
    • an ecosystem
  2.  

  3. Computational Medicine ("Systems Medicine") - the application of computer science techniques (often the results of Systems Biology research) to improve our knowledge and understanding of complete systems relating to disease, injury, treatment and public health.  For example:
    • malaria parasite motility and erythrocyte penetration
    • cancer tumour morphology - tumour dynamics and angiogenesis
    • pharmacokinetics of tumour chemotherapy
    • understanding of disease mechanisms
    • pharmaceutical drug discovery
    • drug target validation
    • drug delivery
    • predictive modeling of pharmacokinetics and pharmacodynamics
    • predictive modeling of disease and treatment
    • automated clinical diagnosis
    • modeling expected patient response to therapy
    • automated remote monitoring of actual patient response
    • modeling and monitoring public health

Our work exploits and enhances a range of computing techniques inspired both for and by the above topics in the BioMedical Sciences.  Particular research interests for BioScience Computing are:

  1. Predictive modeling and simulation - especially the modeling and simulation of self-organising adaptive response and the modeling and simulation of systems where spatial and proximal information is of paramount importance.    
      
  2. Artificial Life ("ALife") - the study of life as an organisational principle.

Relevant computing techniques are drawn from all five of the current research groups in the Department of Computer Science:

  • intelligent systems  (classification, learning, natural computation, data fusion, data mining)
  • vision, imaging and virtual environments (image segmentation, visualisation)
  • software engineering (data warehousing and curation, ontologies, health informatics, grid computing)
  • bioinformatics (classical modeling, protein modeling, genome analysis)
  • networks (telemedicine, grid computing)

 

 

 

 

 

 

 

 

 

 

 

 

 
> Maintained by BioScience Computing Admin