Accurate evaluation of the absorption maxima of retinal proteins based on a hybrid QM/MM method
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Hiroyuki Sato | Minoru Sakurai | Azuma Matsuura | Tomohiko Hayashi | Hirohiko Houjou | Shino Saito | M. Sakurai | Tomohiko Hayashi | A. Matsuura | Hiroyuki Sato | H. Houjou | S. Saito
[1] Hiroshi Nakatsuji,et al. Mechanism of color tuning in retinal protein: SAC-CI and QM/MM study , 2005 .
[2] C. H. Stam. The crystal structure of a monoclinic modification and the refinement of a triclinic modification of vitamin A acid (retinoic acid), C20H28O2 , 1972 .
[3] J. Spudich,et al. Retinylidene proteins: structures and functions from archaea to humans. , 2000, Annual review of cell and developmental biology.
[4] Marco Garavelli,et al. Structure, spectroscopy, and spectral tuning of the gas-phase retinal chromophore: the beta-ionone "handle" and alkyl group effect. , 2005, The journal of physical chemistry. A.
[5] Minoru Sakurai,et al. Study of the Opsin Shift of Bacteriorhodopsin: Insight from QM/MM Calculations with Electronic Polarization Effects of the Protein Environment , 2001 .
[6] Minoru Sakurai,et al. Spectral Tuning of Photoactive Yellow Protein. Theoretical and Experimental Analysis of Medium Effects on the Absorption Spectrum of the Chromophore , 2001 .
[7] Klaus Schulten,et al. Structural determinants of spectral tuning in retinal proteins - Bacteriorhodopsin vs sensory rhodopsin II , 2001 .
[8] Michael C. Zerner,et al. An intermediate neglect of differential overlap technique for spectroscopy: Pyrrole and the azines , 1973 .
[9] K. Morokuma,et al. Investigation of the S0S1 excitation in bacteriorhodopsin with the ONIOM(MO:MM) hybrid method , 2003 .
[10] T. Meyer,et al. Photoactive yellow protein: a prototypic PAS domain sensory protein and development of a common signaling mechanism. , 2003, Biochemistry.
[11] S. Nielsen,et al. Absorption spectra of photoactive yellow protein chromophores in vacuum. , 2005, Biophysical journal.
[12] L. Stryer,et al. Retinal has a highly dipolar vertically excited singlet state: implications for vision. , 1976, Proceedings of the National Academy of Sciences of the United States of America.
[13] Massimo Olivucci,et al. Probing the rhodopsin cavity with reduced retinal models at the CASPT2//CASSCF/AMBER level of theory. , 2003, Journal of the American Chemical Society.
[14] P. Joergensen,et al. Second Quantization-based Methods in Quantum Chemistry , 1981 .
[15] Gerrit Groenhof,et al. Signal transduction in the photoactive yellow protein. I. Photon absorption and the isomerization of the chromophore , 2002, Proteins.
[16] Paul,et al. SECOND QUANTIZATION- BASED METIJODS IN QUANTUM CHEMISTRY , 2003 .
[17] Minoru Sakurai,et al. Physical Origin of the Opsin Shift of Bacteriorhodopsin. Comprehensive Analysis Based on Medium Effect Theory of Absorption Spectra , 1998 .
[18] Jørgen Møller,et al. Electronic States of Naphthazarin and Related Compounds. UV--VIS Linear Dichroism Spectroscopy and Quantum Chemical Model Calculations. , 1999 .
[19] R. H. Johnson,et al. EFFECT OF SOLUTION ENVIRONMENT ON THE ABSORPTION MAXIMA OF SCHIFF BASES OF RETINAL * , 1971, Photochemistry and photobiology.
[20] Stefan Haacke,et al. Absorption of schiff-base retinal chromophores in vacuo. , 2005, Journal of the American Chemical Society.
[21] Koji Nakanishi,et al. 11-cis-retinal, a molecule uniquely suited for vision , 1991 .
[22] Ramkumar Rajamani,et al. Combined QM/MM study of the opsin shift in bacteriorhodopsin , 2002, J. Comput. Chem..
[23] James J. P. Stewart,et al. Application of localized molecular orbitals to the solution of semiempirical self‐consistent field equations , 1996 .
[24] M Elstner,et al. Calculating absorption shifts for retinal proteins: computational challenges. , 2005, The journal of physical chemistry. B.
[25] Marko Schreiber,et al. Origin of the bathochromic shift in the early photointermediates of the rhodopsin visual cycle: A CASSCF/CASPT2 study , 2003 .
[26] Marko Schreiber,et al. Exploring the Opsin shift with ab initio methods: Geometry and counterion effects on the electronic spectrum of retinal. , 2003 .
[27] T. Ashida,et al. The crystal structure of all-trans retinal1 , 1972 .
[28] H Luecke,et al. Molecular mechanism of spectral tuning in sensory rhodopsin II. , 2001, Biochemistry.
[29] M. Sheves,et al. Carbon-13 NMR studies of model compounds for bacteriorhodopsin: factors affecting the retinal chromophore chemical shifts and absorption maximum , 1992 .
[30] G. Kochendoerfer,et al. How color visual pigments are tuned. , 1999, Trends in biochemical sciences.
[31] Alessandro Sergi,et al. Density Functional study of the photoactive yellow protein's chromophore , 2001 .
[32] K. Seff,et al. The Crystal Structure of 13-cis-Retinal. The Molecular Structures of its 6-s-cis and 6-s-trans Conformers , 1981 .
[33] Frank Terstegen,et al. Influence of DFT-calculated electron correlation on energies and geometries of retinals and of retinal derivatives related to the bacteriorhodopsin and rhodopsin chromophores , 1998 .
[34] Minoru Sakurai,et al. Decisive role of electronic polarization of the protein environment in determining the absorption maximum of halorhodopsin. , 2003, Journal of the American Chemical Society.
[35] Iwao Ohmine,et al. Proton Transfer in Bacteriorhodopsin: Structure, Excitation, IR Spectra, and Potential Energy Surface Analyses by an ab Initio QM/MM Method , 2000 .