TY - JOUR
T1 - Construction of hypothetical three-dimensional structure of P2Y1 receptor based on fourier transform analysis
AU - Hiramoto, Takeshi
AU - Nemoto, Wataru
AU - Kikuchi, Takeshi
AU - Fujita, Norihisa
PY - 2002/11
Y1 - 2002/11
N2 - G protein-coupled receptors constitute a large family of homologous transmembrane proteins that represents one of the most important classes of confirmed drug targets. For novel drug discovery, the 3D structure of target protein is indispensable. To construct hypothetical 3D structures of G protein-coupled receptors, several prediction methods have been proposed. But none of the them has confirmed a correct ligand binding site. In this study we constructed the 3D structure of bovine rhodopsin using the prediction method proposed by Donnelly et al., with some modification. We found that our 3D model showed a good agreement with the reported retinal binding site. Using the similar method, we constructed the 3D structure of the P2Y1 receptor; one of the G protein-coupled receptors, and showed a binding site of an endogenous ligand, ADP, on the basis of the 3D model and in vitro experimental data. These results should be valuable for design of a specific antagonist for P2Y1 receptor.
AB - G protein-coupled receptors constitute a large family of homologous transmembrane proteins that represents one of the most important classes of confirmed drug targets. For novel drug discovery, the 3D structure of target protein is indispensable. To construct hypothetical 3D structures of G protein-coupled receptors, several prediction methods have been proposed. But none of the them has confirmed a correct ligand binding site. In this study we constructed the 3D structure of bovine rhodopsin using the prediction method proposed by Donnelly et al., with some modification. We found that our 3D model showed a good agreement with the reported retinal binding site. Using the similar method, we constructed the 3D structure of the P2Y1 receptor; one of the G protein-coupled receptors, and showed a binding site of an endogenous ligand, ADP, on the basis of the 3D model and in vitro experimental data. These results should be valuable for design of a specific antagonist for P2Y1 receptor.
KW - Fourier transform
KW - GPCR
KW - P2Y receptor
KW - Protein modeling
KW - Secondary structure prediction
UR - https://www.scopus.com/pages/publications/52649123721
UR - https://www.scopus.com/pages/publications/52649123721#tab=citedBy
U2 - 10.1023/A:1022429722651
DO - 10.1023/A:1022429722651
M3 - Article
C2 - 12638656
AN - SCOPUS:52649123721
SN - 0277-8033
VL - 21
SP - 537
EP - 545
JO - Journal of Protein Chemistry
JF - Journal of Protein Chemistry
IS - 8
ER -