Christopher Ing

I aim to understand the biophysical mechanisms of wild-type and mutant cytochrome c oxidase using all-atom molecular dynamics. I am particularly interested in ion movement and solvation in these proteins.

Research Interests

Under the guidance of Dr. Pierre Nicholas Roy, I calculated properties of small quantum clusters systems at ultra low temperatures. To achieve this I utilized a path integral molecular dynamics sampling method which I assisted in implementing in the Molecular Modelling Toolkit. The simulation of path integral helium about a fixed CO2 impurity is embedded below for a 64 time-slice helium atom,

http://www.youtube.com/watch?v=zziYdYFpOac

In my current research, I am to advance research in the Pomès Lab on the molecular structure and function of cytochrome c oxidase. Cytochrome c oxidase of R. sphaeroides is depicted in the following figure from J. Phys.: Condens. Matter 23 (2011) 234102. Subunit I, which contains the D channel (inset) and the binuclear centre, highlighted in blue. These are the primary regions of importance to electron and proton transport.

CcO

The crystallographic structure of subunit A in cytochrome c oxidase is depicted in the following embedded viewer (modern browsers only). Navigate through the annotated regions of the protein with the left and right arrows below. 

 


Publications

BibBase.org: www.bibbase.org/mendeley/b993edf3eb

rss group by: generated by BibBase.org
Adhesion of cylindrical colloids to the surface of a membrane. Mkrtchyan, S.; Ing, C.; and Chen, J. Z. Y. 2010. Physical Review E, 81(1):1-9.
Adhesion of cylindrical colloids to the surface of a membrane [http://link.aps.org/doi/10.1103/PhysRevE.81.011904] Adhesion of cylindrical colloids to the surface of a membrane [bib]  abstract_mendeley_4340481533folded.gif Abstract:
Link To This Page.