Oxford University, Structural Bioinformatics & Computational Biochemistry Unit
Home  |  Mission  |  Research  |  Members  |  Positions  |  Image Gallery  |  Panoramas  |  Seminars
Databases: Bookshelf · CGDB · KDB · OMPDB · Lipidbook  |  Links  |  Contact  |  Intranet  |  Search
 

Benjamin Hall


Structural Bioinformatics and Computational Biochemistry Unit
Dept. of Biochemistry
University of Oxford
South Parks Road
Oxford
OX13QU
U.K.

Telephone: (0)1865-613304
Fax: (0)1865-613238

e-mail:

Portrait of Benjamin Hall
division line

Multiscale Modelling and Systems Biology

Systems biology is a growing field concerned with the mapping and parametrisation of biological networks to make systems level predictions of the effects of small scale changes. Structural bioinformatics is a related field concerned with the modelling of atomic scale phenomenon in biological molecules, in particular molecular motions. The timescales achieved by such methods preclude comparison with most biological phenomena and current experimental techniques in dynamics. Bridging these two disciplines involves the development and extension of coarse grained methods to advance the timescale achievable and the accurate extraction of parameters from atomistic modelling to build coarse models which may themselves be embedded into network models. To this end I have developed and am developing a wide range of new tools for the analysis, classification and prediction of protein properties. Using these tools I am gaining novel insights into proteins which are well understood and investigating proteins new to the group, which are amenable to embedding in a systems based model.

My research is funded by OCISB.

I've included some visualisations of my work below, but for those interested there is a larger gallery on my personal webpage


Publications


Hall B.A., Sansom M. S. P. Coarse-Grained MD Simulations and Protein−Protein Interactions: The Cohesin−Dockerin System JCTC 2009, 5(9) 2465

Hall B.A., Kaye S. L., Pang A., Perera R., Biggin P. C. Characterizing Protein States by Normal-Mode Frequencies JACS 2007, 129(37) 11394-11401

Haider S., Hall B.A., Sansom M.S.P. Simulations of a protein translocation pore: SecY. Biochemistry 2006, 45 (43) 13018-24

Grottesi A., Domene C., Hall B., Sansom M.S.P. Conformational Dynamics of M2 Helices in KirBac Channels: Helix Flexibility in Relation to Gating via Molecular Dynamics Simulations Biochemistry 2005, 44 (44) 14586-94

Haider S., Grottesi A., Hall B.A., Ashcroft F.M., Sansom M.S.P. (2005) Conformational Dynamics of the Ligand-Binding Domain of Inward Rectifier K Channels as Revealed by MD Simulations: Towards an Understanding of Kir Channel Gating Biophysical Journal 2005, 88 3310-3320

Barrett C.P., Hall B.A., Noble M.E.M. (2004) Dynamite: A Simple Way to Gain Insight into Protein Motions Acta Crystallographica D 2004, 60 (12-1) 2280-2287


Images


Full Model of the bacterial chemoreceptor protein Tsr:
Tsr
Identifiying the underlying dynamics of viral capsids with simpler models:
Virus/C60
Visualisation of the dynamics of CheA:
CheA
Last updated 8/09/09