Ruben Abagyan

Dr. Ruben Abagyan


Research Focus & Metrics

Academic Career Length

23Years (2004-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

View All Publications
1 January 2011
Verified
Book Chapter
Open access
PDF file
IKIrina Kufareva
Irina Kufareva
RARuben Abagyan
Ruben Abagyan
Despite its apparent simplicity, the problem of quantifying the differences between two structures of the same protein or complex is nontrivial and continues evolving. In this chapter, we described several methods routinely used to compare computational models to...

9 May 2012 in Journal of Computer-Aided Molecular Design
Verified
Journal Article
Closed access
PDF file
MNMarco A. C. Neves
Marco A. C. Neves
MTMaxim Totrov
Maxim Totrov
RARuben Abagyan
Ruben Abagyan

1 August 2011 in Structure
Verified
Journal Article
Closed access
IKIrina Kufareva
Irina Kufareva
MRManuel Rueda
Manuel Rueda
Vsevolod KatritchVsevolod Katritch
Vsevolod Katritch
RSRaymond Charles Stevens
Raymond Charles Stevens
RARuben Abagyan
Ruben Abagyan

22 January 2010 in Journal of Medicinal Chemistry
Verified
Journal Article
Closed access
Vsevolod KatritchVsevolod Katritch
Vsevolod Katritch
VJVeli-Pekka Jaakola
Veli-Pekka Jaakola
JLJ. Lane
J. Lane
JLJudy Lin
Judy Lin
AIAdriaan P. Ijzerman
Adriaan P. Ijzerman
RARuben Abagyan
Ruben Abagyan

1 August 2014 in Structure
Verified
Journal Article
Closed access
IKIrina Kufareva
Irina Kufareva
Vsevolod KatritchVsevolod Katritch
Vsevolod Katritch
RSRaymond Charles Stevens
Raymond Charles Stevens
RARuben Abagyan
Ruben Abagyan

12 November 2011 in Nucleic Acids Research
Verified
Journal Article
Open access
PDF file
IKIrina Kufareva
Irina Kufareva
AIAndrey V. Ilatovskiy
Andrey V. Ilatovskiy
RARuben Abagyan
Ruben Abagyan
The importance of binding site plasticity in protein–ligand interactions is well-recognized, and so are the difficulties in predicting the nature and the degree of this plasticity by computational means. To assist in understanding the flexible protein–ligand interactions, we constructed the Pocketome, an encyclopedia of about one thousand experimentally solved conformational ensembles of druggable binding sites in proteins, grouped by location and consistent chain/cofactor composition. The multiplicity of pockets within the ensembles adds an extra, fourth dimension to the Pocketome entry data. Within each ensemble, the pockets were carefully classified by the degree of their pairwise similarity and compatibility with different ligands. The core of the Pocketome is derived regularly and automatically from the current releases of the Protein Data Bank and the Uniprot Knowledgebase; this core is complemented by entries built from manually provided seed ligand locations. The Pocketome website (www.pocketome.org) allows searching for the sites of interest, analysis of conformational clusters, important residues, binding compatibility matrices and interactive visualization of the ensembles using the ActiveICM web browser plugin. The Pocketome collection can be used to build multi-conformational docking and 3D activity models as well as to design cross-docking and virtual ligand screening benchmarks.