QSAR, Molecular Modelling and Computational Chemistry Research


research in pharmacy and biomolecular sciences


Projects

The following are some of the projects being actively pursued in our laboratory:

  • Prediction of eco-toxicological endpoints such as Tetrahymena pyriformis, Vibrio fischeri (the Microtox test), Daphnia magna, algal and fish toxicities, toxicity to plants and many others (as part of the CAESAR Project).
  • Prediction of endpoints relating to reproductive toxicity (as part of the ReProTect Project).
  • Prediction of endocrine disruption (formerly as part of the EASYRING Project).
  • Development of integrated testing strategies for toxicological endpoints (as part of the OSIRIS Project).
  • Prediction of drug toxicity. A particular emphasis on in silico screening of combinatorial libraries.
  • Prediction of biogredability, chemical persistence and bioaccumulation.
  • Prediction of human health effects such as eye and skin irritation, skin sensitisation, membrane penetration (human skin and artificical), neurotoxicity, and many others.
  • Prediction of reproductive toxicity (as part of the ReProTect project)
  • The IMAGETOX Research Training Network was a collaborative project dedicated to the development of systems for toxicity prediction. Click here for more information on the IMAGETOX Research Training Network.
  • Investigation of reactivity as a descriptor for toxicity (as part of the CAESAR Project).
  • Integration of reactivity in predictive toxicology with an emphasis on endpoints such as skin sensitisation, acute toxicity, etc.
  • Prediction of (electrophilic) reactivity from chemical structure and its association to toxicity (as part of the InSilicoTox Project).
  • Development of reactivity-based toxicity alternatives for acute fish toxicity and skin sensitisation as part of a Defra LINK funded project.

Prediction of Pharmacological Activities

  • Alpha 2 antagonists
  • Non-steroidal anti-inflammatory drugs
  • Physiologically Based Pharmacokinetic (PBPK) Models

Prediction of ADME and Pharmacokinetic Properties

  • Pharmacokinetic properties of drugs that lead to an assessment of drug bioavailability
  • Metabolism
  • Excretion
  • Membrane permeability including skin (see outcomes of CEFIC project); blood-brain barrier; intestinal absorption; placenta; cornea; artificial membranes (e.g. siloxane); and others.

Prediction of Other Endpoints

  • Anti-inflammatory activity
  • Henry's Law Constant
  • Miscellaneous physico-chemical properties

QSAR Philosophy, Methodology and Validation

  • All aspects of QSAR development are investigated, these include:

    • Comparison of methods for QSAR development
    • Interpretation of QSARs and expert systems for property prediction
    • Characterisation, evaluation and ealidation of QSARs for toxicity prediction
  • Activities relating to the REACH chemicals legislation (see also the CAESAR Project)
  • Investigation of applicability domains for QSARs
  • Development of Integrated Testing Strategies utilising in silico techniques
  • Assessment of the OECD QSAR Application Toolbox

Data Mining

  • Predictive Toxicology Knowledge Representation and Processing Tools based on A Hybrid Intelligent Systems Approach (PYTHIA) - This was part of a grant held by Dr Dan Neagu at the University of Bradford.


Page last modified by Glenda Pennington on 30 March 2012.
 
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