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Pedro Manuel Azevedo Alexandrino Fernandes

Publicações :: Ver detalhe

Artigo em Revista
Artigo publicado em revista internacional
Sérgio F. Sousa; Pedro Alexandrino Fernandes; Maria J. Ramos;
Effective Tailor-Made Force Field Parameterization of the Several Zn Coordination Environments in the Puzzling FTase Enzyme: Opening the Door to the Full Understanding of its Elusive Catalytic Mechanism
Theoretical Chemistry Accounts
117
171-181
2007
Protein farnesyltransferase (FTase) is very promising anticancer drug target, with several drugs in advanced stages of clinical testing. However, in spite of the thrilling achievements in the development of farnesyltransferase inhibitors (FTIs) over the past few years, the farnesylation mechanism remains, to some degree, a mystery. This work reports the determination and validation of three sets of molecular mechanical parameters specifically tailored to accurately account for the very specific nature of the several Zn coordination spheres formed during the unclear catalytic pathway of this puzzling metalloenzyme, and built on the top of recent experimental and theoretical results that have dramatically changed the way how the farnesylation mechanism is perceived. Extensive validation studies with 14 FTase crystallographic structures, EXAFS data, DFT, and QM/MM theoretical calculations are presented.
- Não definido.
@ARTICLE {
AUTHOR="Sérgio F. Sousa and Pedro Alexandrino Fernandes and Maria J. Ramos",
TITLE="Effective Tailor-Made Force Field Parameterization of the Several Zn Coordination Environments in the Puzzling FTase Enzyme: Opening the Door to the Full Understanding of its Elusive Catalytic Mechanism",
JOURNAL="Theoretical Chemistry Accounts",
VOLUME="117",
NUMBER="",
PAGES="171-181",
MONTH="",
YEAR="2007",
NOTE="",
CITEKEY="",
ABSTRACT="Protein farnesyltransferase (FTase) is very promising anticancer drug target, with several drugs in advanced stages of clinical testing. However, in spite of the thrilling achievements in the development of farnesyltransferase inhibitors (FTIs) over the past few years, the farnesylation mechanism remains, to some degree, a mystery. This work reports the determination and validation of three sets of molecular mechanical parameters specifically tailored to accurately account for the very specific nature of the several Zn coordination spheres formed during the unclear catalytic pathway of this puzzling metalloenzyme, and built on the top of recent experimental and theoretical results that have dramatically changed the way how the farnesylation mechanism is perceived. Extensive validation studies with 14 FTase crystallographic structures, EXAFS data, DFT, and QM/MM theoretical calculations are presented. ",
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}
         
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