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    ¹²·¢±íÑо¿ÂÛÎÄ170¶àƪ£¬ÆäÖÐ6ƪSCIENCE ÂÛÎÄ£¬1ƪNATURE£¬3ƪPNAS £¬9ƪ·¢±íÔÚPRL/JACSÉÏ, Ö÷±àÓ¢ÎÄ×¨ÖøÒ»²¿¡£¿ÆÑгɹûÁ¬ÐøÁ½Ä걻ѡΪ¡°ÖйúÊ®´ó¿Æ¼¼½øÕ¹ÐÂÎÅ¡±¡£½üÄêÀ´ÔÚÖØÒª¹ú¼Ê»áÒéÉϵÄÌØÑû±¨¸æ´ï30¶à´Î¡£2001ÄêÆð£¬ÒÑÅàÑøË¶Ê¿¡¢²©Ê¿13Ãû¡£»ñµÃ¹ú¼Ò×ÔÈ»¿ÆÑ§¶þµÈ½±¡¢ÁÉÄþÊ¡×ÔÈ»¿ÆÑ§Ò»µÈ½±µÈ¡£

    ÈΡ°International Reviews in Physical Chemistry¡±, ¡°Chemical Physics Letters¡±, ¡°Physical Chemistry Chemical Physics¡±µÈÈýÖÖ¹ú¼Ê¿¯ÎïºÍ2ÖйúÄÚ¿¯Îï±àί£¬ÈÎ ¡°Journal of Physical Chemistry A/B/C¡± ÆÚ¿¯¸ß¼¶±à¼­£¬ÈÎÖйúÆÚ¿¯¡°Chinese Journal of Chemical Physics¡±Ö÷±à¡£ÈΡ°Öйú¿ÆÑ§¼¼Êõ´óѧ¡±¼°¡°´óÁ¬Àí¹¤´óѧ¡±¼æÖ°½ÌÊÚ¡£


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1. M. Qiu et al., Observation of Feshbach Resonances in the F+H2 -> HF+H Reaction, Science, 311 (2006), 1440(2006)

2. J. Zhang et al., State-to-State-to-State Dynamics of the D+H2 -> DH+H Reaction: Control of Transition State Pathways via Reagent Orientation, Phys. Rev. Lett., 96, 093201(2006)

3. K. Yuan et al., An Experimental and Quantum Dynamical Study on an Asymmetric Insertion Reaction: State-to-State Dynamics of O + HD -> OH+ D, Phys. Rev. Lett., 96, 103202(2006)  

4. D. Dai et al., Interference of quantized transition-state pathways in the H+D2 -> D+HD chemical reaction, Science, 300, 1730(2003)  

5. S. A. Harich et al., Forward scattering due to slow-down of the intermediate in the H+HD   -> D+H2 reaction, Nature, 419, 281(2002)   

Link:
http://sourcedb.dicp.cas.cn/zw/z ... 090820_2428109.html
11Â¥2010-03-20 11:05:12
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wolfzhong

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fegg7502(½ð±Ò+10):thank you very much! 2010-03-20 15:17
Donald G. Truhlar

Link£º
http://comp.chem.umn.edu/truhlar/

Ñо¿ÁìÓò
1. Quantum mechanical dynamics
2. Semiclassical dynamics: VTST and multi-surface trajectories
3. Force fields, potential energy surfaces, direct dynamics, and computational thermochemistry
4. Solvation effects
5. Biochemistry
6. Nanomaterials
7. Integrated Tools for Computational Chemical Dynamics
8. Grand Challenge: Computational Chemical Dynamics of Complex Systems
9*. Earth and Planetary Materials Research


Selected Research Highlights
Jan. 12, 2010
Least-action tunneling paths

May 11, 2009
Consistent van der Waals Radii

Mar. 03, 2008
Force Fields for Complex Reactions

Feb. 07, 2008
The SM8 Universal Solvation Model

Feb. 07, 2008
Truhlar Group Research Highlights

Feb. 06, 2008
Toward Accurate Potentials for Condensed-Phase Chemical Reactions: Electrostatically Embedded Multi-Configuration Molecular Mechanics

Jun. 25, 2007
Computer Simulations Show that the Hydrogen Radical Transfer Reaction Catalyzed by Methylmalonyl-CoA Mutase and Coenzyme B12 is Dominated by Extreme Quantum Mechanical Tunneling

Apr. 07, 2007
Truhlar Group Progress Report: NSF Research

Feb. 02, 2007
Current highlights in medicinal chemistry and enzyme kinetics

Feb. 01, 2007
Solvation research

Jan. 31, 2007
Computational nanoscale science

Jan. 30, 2007
Photochemical dynamics

Jan. 29, 2007
Thermochemical kinetics, environmental dynamics, planetary and earth sciences, catalysis, and combustion modeling: Next-generation density functionals and new methods for calculating potential energy functions

Jul. 10, 2006
Assessment of the pairwise additive approximation and evaluation of many-body terms for water clusters

Feb. 15, 2006
Critical properties of aluminum

Jan. 18, 2006
Improved density functionals for water

Jan. 04, 2006
Enzyme catalysis: Quantum effects and non-perfect synchronization

Aug. 09, 2005
Photodissociation of ammonia

Aug. 05, 2005
Improved density functionals for water

Aug. 04, 2005
Enzyme catalysis: quantum effects and non-perfect synchronization

Apr. 01, 2005
ECCC10 feature paper: QM/MM: What have we learned, where are we, and where do we go from here?

Mar. 31, 2005
NSF annual report: Quantum mechanical effects in complex systems

Mar. 02, 2005
Quantum mechanical reaction rate constants by vibrational configuration interaction

Mar. 01, 2005
Computation-team to advance efficiency of Naval energy

Nov. 08, 2004
Quantum mechanical reaction rates with vibrational configuration interaction

May 26, 2004
SCC-DFTB with MM by GHO

Dec. 11, 2003
DHFR kinetic isotope effects

Oct. 17, 2003
Quantum mechanical rare event sampling

Oct. 03, 2003
Laser-controlled chemistry: Modeling the photodissociation dynamics of LiFH with semiclassical trajectories

Oct. 02, 2003
Research overview: HTML format PowerPoint format, PDF format

Jan. 08, 2003
Multicoefficient Correlation methods for thermochemistry and thermochemical kinetics

Dec. 12, 2002
Carbene Isomerization: The importance of tunneling

Oct. 12, 2002
Transition states for quantum photochemistry and the breakdown of the Born-Oppenheimer approximation for laser-induced Chemistry

Aug. 08, 2001
Quantum mechanical tunneling in methylamine Dehydrogenase

Nov. 15, 2000
Progress on the four-body problem: Quantum mechanics of HF dimer

July 26, 2000
Coupled motion in the quantum dynamics of enzyme reactions

Feb. 09, 2000
Computational electrochemistry: Prediction of environmentally important redox potentials
12Â¥2010-03-20 11:11:28
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wolfzhong

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fegg7502(½ð±Ò+10):thank you very much! 2010-03-20 15:17
Henry F. Schaefer III

Link :
http://www.ccqc.uga.edu/

Research Interests :
Research Interests

The Center for Computational Quantum Chemistry seeks to develop theoretical and computational methods through mathematical models for describing and understanding the movement and function of electrons in molecules and to apply the theoretical methods to significant problems of broad chemical interest. Some of the theoretical methods under development include the configuration interaction, coupled cluster, and Brueckner methods and associated analytic gradient techniques. Additional theoretical work involves density functional theory, the evaluation of electron repulsion integrals, and the treatment of relativistic effects. Currently applications to several areas of chemistry are of special concern:


the potential energy hypersurfaces that govern elementary gas phase chemical reactions, including systems pertinent to combustion;
fundamental problems in physical organic chemistry involving, for example, carbenes and other biradical species and systems such as the [n] paracyclophanes and [10] annulene;
organosilicon chemistry, specifically the prediction and understanding of the properties of silicon analogs of both common and unknown hydrocarbon compounds;
hydrogen bonding in systems as complicated as the guanine-cytosine base pair;
the study of molecular ions and ion clusters pertinent to atmospheric chemistry.
Publications

T.J. van Huis, H.F. Schaefer, "The ClO4 Radical: Experiment vs. Theory," J. Chem. Phys. 1997, 106, 4028.

J.T. Fermann, B.C. Hoffmann, G.S. Tschumper, H.F. Schaefer, "The Hydroperoxyl Radical Dimer: Triplet Ring of Singlet String?," J. Chem. Phys. 1997, 106, 5102.

S.S. Wesolowski, J.T. Fermann, T.D. Crawford, H.F. Schaefer, "The Weakly Bound Dinitrogen Tetroxide Molecule: High Level Single-Reference Wave Functions are Good Enough," J. Chem. Phys. 1997, 106, 7178.

G.S. Tschumper, Y. Yamaguchi, H.F. Schaefer, "A High Level Theoretical Investigation of the Cyclic Hydrogen Fluoride Trimer," J. Chem. Phys. 1997, 106, 9627.

Y. Xie, P.R. Schreiner, P.R. Schleyer, H.F. Schaefer, "The Naphthyl-carbene Potential Energy Hypersurface," J. Am. Chem. Soc. 1997, 119, 1370.

P.S. ´ËÈËËûÒý»¯Ñ§½ç¶¼ºÜ¸ß
13Â¥2010-03-20 11:17:19
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wolfzhong

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fegg7502(½ð±Ò+10):thank you very much! 2010-03-20 15:17
Genort Frenking

H. F. Schaefer III ÉÏÊÀ¼ÍµÄ·ÃÎÊѧÕߣ¬¸£¾®µÄѧÉú ¡£ ·¢Å·ÖÞ»¯Ñ§ÒÔÉϵÄÔÓÖ¾¸ú³Ô²ËÒ»Ñù£¬»¹ÓÐ¶àÆªScience¡£

Link:
http://www.uni-marburg.de/fb15/ag-frenking

The Frenking GroupWith this page we want to introduce the members and the research activities of the computational chemistry group of Prof. Frenking, Philipps Universität of Marburg. For comments or questions you may contact us via eMail: frenking@see.foot.note. We kindly ask former members of the group to keep us updated about their address, in order that we can contact them for future group meetings.

Research Profile of the Frenking GroupThe main research area of the Frenking-Group is the application of theoretical methods for studying structure, reactivity, physical properties and bonding situation of molecules, particularly transition metal compounds. We are using quantum mechanical ab-initio as well as density functional methods in conjunction with effective core potentials for the heavy atoms.

At present we are engaged in a thorough investigation of the nature of the chemical bond across the periodic table using an energy decomposition analysis (EDA). The EDA method makes it possible to quantify the contributions of covalent and classical electrostatic interactions to a chemical bond. It is also possible to estimate the strength of ¦Ò, ¦Ð and ¦Ä bonding in multiple bonds.

Another focus of our theoretical work are systematic studies of metal-ligand interactions in transition metal compounds in high and low oxidations states. We are searching for new transition metal complexes with ligands that have not been synthsized before. We are also engaged in the calculation and analysis of the bonding interactions of donor-acceptor complexes.

Another research area are theoretical investigations of reaction mechanisms. The main focus lies in the field of transition metal mediated reactions. We are particularly interested in homogeneously catalysed reactions. Recent work has been carried out in the field of oxidation reactions of transition metal oxides and peroxides. A particular emphasis of our work lies in the analysis of the calculated data in order to provide an understanding of the theoretical and experimental results in terms of chemical models, which are derived from accurate theoretical calculations rather than ad hoc assumptions.

The following publications are representative examples of our work:¡°Why do the Heavy-Atoms Analogues E2H2 (E = Si - Pb) Exhibit Unusual Structures?¡±
M. Lein, A. Krapp, G. Frenking, J. Am. Chem. Soc. 127, 6290 (2005)


¡°Orbital Overlap and Chemical Bonding.¡±
A. Krapp, F. M. Bickelhaupt, G. Frenking, Chem. Eur. J. 12, 9196 (2006)


¡°Di-Valent Carbon(0) Chemistry of Carbodiphosphoranes.¡±
R. Tonner, F. Öxler, B. Neum¨¹ller, W. Petz, G. Frenking, Angew. Chem. 118, 8206 (2006); Angew. Chem. Int. Ed. 45, 8038 (2006)


¡°Direct Estimate of Strength of Conjugation and Hyperconjugation with the EDA Method.¡±
I. Fern¨¢ndez and G. Frenking, Chem. Eur. J. 12, 3617 (2006)


¡°Unicorns in the world of Chemical Bonding Models.¡±
A. Krapp, G. Frenking, J. Comput. Chem. 28, 15 (2007)


¡°Is This a Chemical Bond? A Theoretical Study of Ng2@C60 (Ng = He, Ne, Ar, Kr, Xe).¡±
A. Krapp and G. Frenking, Chem. Eur. J. 13, 8256 (2007).


¡°C(NHC)2: Divalent Carbon(0) Compounds with N-Heterocyclic Carbene Ligands ¨C Theoretical Evidence for a Class of Compounds with Promising Chemical Properties.¡±
R. Tonner and G. Frenking, Angew. Chem. 119, 8850 (2007); Angew. Chem. Int. Ed. 46, 8695 (2007)


¡°Divalent Carbon(0) Chemistry. Part 1: Parent Compounds.¡±
R. Tonner and G. Frenking, Chem. Eur. J. 14, 3260 (2008)


¡°Divalent Carbon(0) Chemistry. Part 2: Protonation and Complexes With Main Group and Transition Metal Derived Lewis Acids.¡±
R. Tonner and G. Frenking, Chem. Eur. J. 14, 3273 (2008)


¡°Ligand-Tuned Regioselectivity of a Cobalt Catalyzed Diels-Alder Reaction. A Theoretical Study.¡±
P. Mörschel, J. Janikowski, G. Hilt and G. Frenking, J. Am. Chem. Soc. 130, 8952 (2008)


¡°Twelve One-Electron Ligands Coordinating one Metal Center: Structure and Bonding of [Mo(ZnCH3)9(ZnCp*)3].¡±
T. Cadenbach, T. Bollermann, C. Gemel, I. Fern¨¢ndez, M. von Hopffgarten, G. Frenking, R. Fischer, Angew. Chem. 120, 9290 (2008); Angew. Chem. Int. Ed. 47, 9150 (2008)


¡°Carbon Complexes as Electronically and Sterically Tunable Analogues of Carbon Monoxide in Coordination Chemistry.¡±
A. Krapp, G. Frenking, J. Am. Chem. Soc. 130, 16646 (2008)
14Â¥2010-03-20 11:27:47
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wolfzhong

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fegg7502(½ð±Ò+10):thank you very much! 2010-03-20 15:16
William A. Goddard III

¿´¹ýËûµÄһЩÎÄÏ×£¬¾õµÃ´ËÈËÊôÓÚÅ£ÈË¡£Ã»×Ðϸ²é¿´¡£

Link: http://www.wag.caltech.edu/home/wag/wag.html

Research Areas
Professor Goddard's research focuses on:
Developing new methods for theory including:
quantum mechanics for the electronic wavefunctions of large molecules and crystals, including the many-body effects needed to describe reactions.[1-3]
force fields to describe the dynamics of atomic motions[4,5]
molecular dynamics of large molecules and solids to determine the structure, vibrations, and dynamical processes of materials[6-8]
statistical mechanics to describe phase diagrams (mixtures of molecules and polymers; metallic alloys)

Implementation of these methods in efficient software for high speed calculations using massively parallel computers

Applications of these methods to important problems in the chemistry, materials, and biological sciences including:
prediction of protein tertiary structure from primary sequence
mechanisms of catalytic reactions on surfaces (heterogeneous) and in solution (homogeneous)[9,10]
reconstruction of semiconductor, ceramic, and polymer surfaces
growth of semiconductors and ceramics using molecular beam epitaxy (MPE) and chemical vapor deposition (CVD)
properties of amorphous polymers (moduli, surface tension, gas diffusion, glass temperature, hyperpolarizabilities)[11].
properties at semiconductor heterojunctions
structure and energetics of protein/DNA complexes[12,13]

Application of these methods to important industrial problems. Current projects include:
VPO catalysis - mechanism of highly selective oxidation of butane to maleic anhydride; develop experimental tests for the mechanism and extend to new substrates
HgCdTe - mechanism of MBE growth for (100) Hg1-xCdxTe; develop a growth strategy for incorporating As at Te sites (p type doping) and for preventing Hg vacancies
nylon - determine how the properties of nylon (moduli, melting point) are related to molecular structure; learn how to prevent deleterious incorporation of H2O.
gas diffusion in polymers - characterize diffusion of small gases (CO2, O2 etc.) in copolymers; determine how it depends on character of copolymer.
corrosion inhibitors - replace imidazolines.
wear inhibitors - replace Zn dithioalkylether phosphates.
scale inhibitors - replace phosphonate amines.
scale dissolvers - replace EDTA.
demulsifiers - find effective ones for asphaltines.
References
"Pseudospectral contracted configuration interaction from a generalized valence bond reference" J Chem Phys 101, 2986, (1994).
"New pseudospectral algorithms for electronic structure calculations: Length scale separation and analytical two-electron integral corrections" J. Chem. Phys. 101, 4028 (1994).
"Accurate first principles calculation of molecular charge distributions and solvation energies from ab initio quantum mechanics and continuum dielectric theory" J Am Chem Soc 116, 11875 (1994).
"UFF, a full periodic table force field for molecular mechanics and molecular dynamics", Am Chem Soc 114, 10024 (1992);
"Force fields, structures, and properties of poly(vinylidene fluoride) crystals", Macromolecules 25, 7268 (1992).
"The reduced cell multipole method for Coulomb interactions in periodic systems with million-atom unit cells", Chem Phys Lett 196, 6 (1992).
"Atomic level simulations on a million particles: The cell multipole method for Coulomb and London nonbond interactions", J Chem Phys 97, 4309 (1992).
"Protein simulations using techniques suitable for very large systems: the cell multipole method for nonbond interactions and the Newton-Euler inverse mass operator method for internal coordinate dynamics", Proteins 20, 227 (1994).
"Theoretical studies of Ziegler-natta catalysis: Structural variations and tacticity control", J Am Chem Soc 116, 1481 (1994).
"The mechanism and energetics for dehydrogenation of methane by gaseous iridium ions", Organometallics 13, 1870 (1994).
"Valence-bond charge transfer model for nonlinear optical properties of charge-transfer organic molecules", J Am Chem Soc 116, 10679 (1994).
"Contributions of the thymine methyl group to the specific recognition of poly- and mononucleotides: An analysis of the relative free energy of solvation of thymine and uracil", Biochemistry 33, 3050 (1994).
"Design superiority of palindromic DNA sites for site-specific recognition of proteins: tests using protein stitchery" Proc. Natl. Acad. Sci.90, 4892 (1993).
15Â¥2010-03-20 11:35:55
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wolfzhong

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fegg7502(½ð±Ò+10):thank you very much! 2010-03-21 14:04
Robert H. Crabtree
Professor of Chemistry
Member of Yale faculty since 1977 Õâλprof. ÊÇʵÑéÓëÀíÂÛ½áºÏµÄ£¬¿´µ½ÎÄÏ×Öжà´ÎÓ¦ÓÃËûµÄʵÑéºÍÀíÂÛÑо¿³É¹û¡£YaleµÄ½ÌÊÚ£¬Ïë±Ø²»»á²îµ½ÄÄÀï°É

E-mail: robert.crabtree@yale.edu
Web site: http://ursula.chem.yale.edu/~crabtree

Research Design and synthesis of inorganic, coordination or organometallic molecules with unusual structures and properties. These are typically catalytic properties for atom economic (green) transformations, bioinorganic relevance or utility in alternative energy strategies, such as solar energy and hydrogen storage. Molecular recognition is applied to homogeneous catalysis to obtain high selectivity. Computational and physicochemical insights are obtained from collaborative work.

Education
B.A. New College, Oxford 1970
Ph.D. Sussex University 1973
Postdoctoral Fellow, CNRS, Gif-s-Yvette, France, 1973-75
Attach¨¦ de Recherche, Gif, 1975-77

Honors
DuPont Young Faculty Fellow, 1977
A.P. Sloan Foundation Fellow, 1981
Junior Faculty Fellow, Yale, 1981
Dreyfus Teacher-Scholar, 1982
Corday-Morgan Medal, 1984
Esso Lectureship, Toronto, 1986
Albright and Wilson Visiting Prof., Warwick, 1986
Editorial Board, Chemical Reviews, 1990
Organometallic Chemistry Prize of RSC, 1991
Organometallic Chemistry Prize of ACS, 1993
Mack Award, Ohio State Univ., 1994
Editorial Board, J. Mol. Catal., 1995
Assoc. Ed., Americas, New J. Chem., 1998
Chair, Div. of Inorg. Chem., ACS., 1998
Ed. Board, Comptes Rendues (Paris), 1998
Dow Lecturer, Univ. of Ottowa, 1999
ISI Highly Cited Author Award, 2000
Bailar Medal, Univ. of Illinois, 2001
Rh Bicentennial Award; Ed. Board, Coor. Chem. Rev., 2002
Dow Lecturer, Berkeley, Williams Lecture, Oxford, 2004
Sabatier Lecture, Toulouse; Brewster Lecture, Kansas, 2006
Karcher Medal (Oklahoma), 2007
Pedersen Lecture (duPont), Lutz Lecture (U Va) 2008
John Osborn Lecturer (Strasbourg); Mond Lecture Series, Roy. Soc. Chem; Shore Lecture (Ohio State U), 2009

Recent Publications
W. McNamara, R. Snoeberger, G. Li, J. Schleicher, C. Cady, M. Poyatos, C. Schmuttenmaer, R.H. Crabtree, G.W. Brudvig, & V. Batista. Acetylacetonate Anchors for Robust Functionalization of TiO2 Nanoparticles with Mn(II)-Terpyridine Complexes. J. Am. Chem. Soc. 2008, 130, 14329¨C14338.

A. Voutchkova, A. Coplin, N. Leadbeater, & R.H. Crabtree. Palladium-Catalyzed Decarboxylative Coupling of Aromatic Acids with Aryl Halides or Unactivated Arenes Using Microwave Heating. Chem. Comm. 2008, 47, 6312 - 6314.

D. Gnanamgari, E.L.O. Sauer, N.D. Schley, C. Butler, C.D. Incarvito, & R.H. Crabtree. Iridium and Ruthenium complexes with Chelating N-Heterocyclic carbenes: Efficient catalysts for transfer hydrogenation, β-alkylation of alcohols and N-alkylation of amines. Organometallics 2009, 28, 321¨C325.

J. Hull, E.L.O. Sauer, G.W. Brudvig, & R.H. Crabtree. Manganese Catalysts with Molecular Recognition Functionality for Selective Alkene Epoxidation, Inorg. Chem. 2009, 48, 488¨C495.

G. Li, E.M. Sproviero, R.C. Snoeberger III, N. Iguchi, J.D. Blakemore, R.H. Crabtree, G.W. Brudvig, & V.S. Batista. Deposition of an Oxomanganese Water Oxidation Catalyst on TiO2 Nanoparticles: Computational Modeling, Assembly and Characterization. Energy & Environmental Sci. 2009, in press.
16Â¥2010-03-21 11:28:12
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wolfzhong

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fegg7502(½ð±Ò+10):thank you very much! 2010-03-21 14:04
Tom Ziegler ´ËÈ˺ÜÔçÒÔǰ¾Í¿´µ½ËûµÄÎÄÏ×£¬¿ªÊ¼ÒÔΪÊÇNobel½±µÄZiegler£¬ÊÂʵÊÇÁ½ÈË£¬¼ÓÄôó½ÌÊÚ¸øÎÒµÄÓ¡ÏóºÜÉî¿Ì¡£

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The Lise Meitner Lectureship award for the year 2008 goes to Tom Ziegler from the University of Calgary (Canada).
Tom Ziegler is awarded for his numerous contributions to the improvement of Density Functional Theory (DFT) and its application to transition metal compounds, to their reactivity and spectroscopy, to catalysis and polymerization. .

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17Â¥2010-03-21 11:36:40
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Prof. Dr. Jörg Neugebauer¿ÎÌâ×é
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18Â¥2010-04-13 16:15:06
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1. Mechanistic study of Transition-metal Catalysis: In collaboration with Yang Zhen, Lu Xi-Yan and Hou Xue-Long, our group has been involved in the study of reaction mechanisms of several late transition metal catalyzed reaction including the Pauson-Khand reaction (Eq. 1), Mannich reaction and [3+2] dipolar reaction, Michael-type conjugative addition (Eq 2), and hydrosilylation reactions (Eq. 3).



2. Development of a coarse-grained protein model£ºIn couple with course-grained water model for the molecular dynamics study of protein folding and protein-protein interactions.



3. Protein-Protein Interactions for Drug Discovery: Details of the protein-protein interactions is critical for understanding many human pathogens. velop drug leads for drug developments to battle with these diseases. In the case of A peptide aggregation, we found that a strand-loop-strand structure is characteristic for the monomer of A in solution and its stability might be related to the easy formation of fibril.
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. Han, W.; Wu, Y.-D. "A Coarse-grained Protein Model Coupled with a Coarse-grained Water Model: Molecular Dynamics Study of Polyalanine-based Peptides" J. Chem. Theory Comput. 2007, 3, 2146-2161.

2. Wu, X.-H.; Quan, J. M.; Wu, Y.-D. "A Theoretical Study of the Catalytic Mechanism and Metal Ion Dependence of Peptide Deformylase" J. Phys. Chem. B. 2007, 111, 6236-6244.

3. Han, W.; Wu, Y.-D. "A Strand-Loop-Strand Structure is A Possible Intermediate in Fibril Elongation: Long Time Simulations of Amyloid- Peptide (10-35)" J. Am. Chem. Soc. 2005, 127, 15408¨C15416.

4. Tang, Z.; Jiang, F.; Cui, X.; Gong, L.-Z.; Mi, A.-Q.; Jiang, Y.-Z.; Wu, Y.-D. "Enantioselective Direct Aldol Reactions Catalyzed by L-Prolinamide Derivatives" Proc. Nat. Aca. Sci. USA, 2004, 101, 5755-5760.

5. Chung, L.-W.; Wu, Y.-D.; Trost, B. M.; Ball, Z. M. "A Theoretical Study on the Regio- and Stereo-selectivities of Hydrosilylation Catalyzed by Cationic Ruthenium Complexes" J. Am. Chem. Soc. 2003, 125, 11578-11582.

6. Zhao, Y.-L.; Wu, Y.-D. "A Theoretical Study on -Sheet Models: Is the Formation of Hydrogen Bond Network Cooperative ?" J. Am. Chem. Soc. 2002, 124, 1570-1571.
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7. Wu, Y.-D., Zhao, Y.-L. "A Theoretical Study on the Origin of Cooperativity in the Formation of 310- and -Helices " J. Am. Chem. Soc. 2001, 123, 5313-5319.

8. Wu, Y.-D.; Wang, D.-P.; Chan, K. Y. K.; Yang, D. "Theoretical Study of Peptides Formed by Aminoxy Acids" J. Am. Chem. Soc. 1999, 121, 11189-11196.

9. Wu, Y.-D.; Wang, D.-P. "Theoretical Studies on the Side-Chain Control of 14-Helix and 10/12-Mixed Helix of -peptides." J. Am. Chem. Soc. 1999, 121, 9352-9362

10. Y.-D. Wu, D.-P. Wang, "Theoretical Studies of -Peptide Models" J. Am. Chem. Soc. 1998, 120, 13485-13493.
19Â¥2010-04-14 16:26:34
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Yanming Ma*, Mikhail Eremets, Artem R. Oganov, Yu Xie, Ivan Trojan, Sergey Medvedev, Andriy O. Lyakhov, Mario Valle and Vitali Prakapenka,¡°Transparent dense sodium¡±,  Nature 458, 182 (2009).
See also Nature News & Views,¡°Condensed-matter physics: Pressure for change in metals¡±, Nature 458, 158 (2009).
Highlighted by Nature Photonics 3, 250, (2009), Chemistry World, Chemical& Engineering News, and so on.
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