|
Metal-Binding Affinity and Selectivity of Nonstandard Natural
Amino Acid Residues from DFT/CDM Calculations,
is now available on the The Journal of Physical Chemistry B
website.
http://pubs.acs.org/articlesonrequest/AOR-GciNX8QYwZUjRIapnu9E
|
|
108.
Finding Structural Motifs Across
Protein Families.
Chih Yuan Wu, Yao Chi Chen & Carmay
Lim*, (2010),
submitted (01/10).
|
|
107.
The Scorpion Motif – A Conserved Structural Motif in the
Catalytic Domains of PARP and ADPRT
Families for Binding NAD+.
Yu-Ming Lee & Carmay Lim*, J. Med.
Chem. (2010)
submitted (01/27).
|
|
106.
Arrangement
of 3D Structural Motifs in Ribosomal
RNA.
Karen Sargsyan & Carmay Lim*,
Nucleic Acids Res. (2010)
accepted (01/27).
|
|
105.
Factors
Governing the Na+ vs. K+ Selectivity in
Sodium Ion Channels.
Todor Dudev & Carmay Lim*, J. Am. Chem.
Soc. (2010)
in press (01/8).
(http://pubs.acs.org/articlesonrequest/AOR-UIuisQMwNv78vnDDZ2pw)
|
|
104.
Redesign of High-Affinity Nonspecific Nuclease with Altered
Sequence preference.
Yi-Ting
Wang, Jon D. Wright, Lyudmila G. Doudeva, Hua-Ci
Jhang, Carmay Lim* and
Hanna S. Yuan*, J. Am. Chem. Soc.
(2009)
131:17345–17353.
|
|
103.
Metal−Binding
Affinity and Selectivity of Rare Natural Amino Acid Residues
from DFT/CDM Calculations.
Todor Dudev & Carmay Lim*, J. Phys. Chem.
B (2009)
113:
11754–11764.
|
|
102.
Determinants of K+
vs. Na+
Selectivity in Potassium Channels.
Todor Dudev & Carmay
Lim*, J. Am. Chem. Soc.
(2009)
131:8092–8101.
|
|
101. A
Combined Experimental and Theoretical Study of Long-Range
Interactions Modulating Dimerization and Activity of Yeast
Geranylgeranyl
Diphosphate Synthase.
Chia-Hsiang Lo, Ying-Hsuan Chang, Jon D.
Wright, Shih-Hsun Chen, Daphne Kan, Carmay Lim*,
and Po-Huang Liang*,
J. Am.
Chem. Soc. (2009)
131:4051-62.
|
|
100.
Factors Governing Metal–Ligand Bond Distances and Coordination
Geometries of Metal Complexes.
Gopi Kupparaj, Minko Dudev & Carmay Lim*,
J. Phys. Chem.
B (2009)
113:2952–2960.
|
|
99.
Strategies to Model the Near–Solute
Solvent Molecular Density/Polarization.
Pei-Kun Yang & Carmay Lim*,
J. Comp. Chem.
(2009) doi:10.1002/jcc.21089.
|
|
98. Force
Fields Including Charge Transfer and Local Polarization Effects:
Application to Proteins Containing Multi/Heavy
Metal Ions.
Dmitri V. Sakharov & Carmay Lim*, J.
Comp. Chem. (2009)
30:191–202.
|
|
97. Common
Physical Basis of Macromolecule–Binding
Sites in Proteins.
Yao Chi Chen & Carmay
Lim*, Nucleic Acids Res.
(2008)
36:7078-7087.
|
|
96.
Predicting RNA–binding
sites on proteins based on electrostatics, evolution, and
geometry.
Yao Chi Chen & Carmay
Lim*, Nucleic Acids Res.
(2008)
36(5):e29.
|
|
95. The
Importance of Excluded Solvent Volume Effects in Computing
Hydration Free Energies.
Pei-Kun Yang & Carmay Lim*,
J. Phys. Chem.
B (2008)
112:14863–14868.
|
|
94.
Reformulation of Maxwell’s Equations to Incorporate Near–Solute
Solvent Structure.
Pei-Kun Yang & Carmay Lim*, J. Phys.
Chem. B
(2008),
112:
10791–10794.
|
|
93.
Physical Basis of Structural and Catalytic Zn-binding
Sites in
Proteins.
Yu-Ming Lee & Carmay Lim*,
J. Mol. Biol. (2008)
379:545–553.
|
|
92.
Mononuclear versus Binuclear Metal–Binding
Sites: Metal Binding Affinity and Selectivity from PDB Survey
and
DFT/CDM
Calculations.
Tsung-YingYang, Todor Dudev
& Carmay Lim*,
J. Am. Chem. Soc. (2008)
130:3844–3852.
|
|
91. Metal
Binding Affinity
and Selectivity in Metalloproteins: Insights
from Computational Studies
Todor Dudev & Carmay Lim*,
Annual Reviews in Biophysics.
(2008)
37:97–116
|
|
90.
Mechanisms of DNA–Binding
Loss upon Single–Point
Mutation in
p53.
Jon D. Wright & Carmay Lim*,
J. Biosciences (2007)
32,
827–839.
|
|
89. All–Electron
Calculations of the Nucleation Structures in Metal–Induced
Zinc–Finger
Folding: Role of the Peptide Backbone.
Todor Dudev & Carmay
Lim*, J. Am. Chem. Soc.
(2007)
129:12497–12504.
|
|
88.
Discovering Structural Motifs Using a Structural Alphabet:
Application to Mg–Binding
Sites.
Minko Dudev & Carmay Lim*,
BMC Bioformatics (2007)
8:106–118.
|
|
87.
Predicting DNA–Binding
Amino Acid Residues
from Electrostatic Stabilization upon
Mutation to Asp/Glu and
Evolutionary Conservation.
Yao Chi Chen, Chih Yuan Wu & Carmay Lim*,
Proteins:
Structure, Function &
Bioinformatics
(2007) 67:
671−680.
|
|
86.
Polarization–Consistent
vs Correlation–Consistent
Basis Sets in Predicting
Molecular and Spectroscopic Properties.
Teobald Kupka & Carmay Lim*, J. Phys.
Chem. A
(2007)
111(10):
1927–1932.
|
|
85. Effect
of Carboxylate–Binding
Mode on Metal Binding/Selectivity and Function in
Proteins.
Todor Dudev & Carmay Lim*,
Acc. Chem. Res.
(2007)
40: 85−93.
|
|
84. Factors
Governing the Metal Coordination Number in Group IA and IIA
Metal Hydrates From DFT Calculations.
Ingvar Tunell & Carmay Lim*,
Inorg. Chem. (2006)
45:4811−4819.
|
|
83. Factors
Governing the Metal Coordination Number in Metal Complexes From
Cambridge Structure Database Analyses.
Minko Dudev, Jonathan Wang, Todor Dudev &
Carmay Lim*, J. Phys. Chem. B
(2006)
110:
1889–1895.
|
|
82.
Competition Between Protein Ligands and Cytoplasmic Inorganic
Anions for the Metal Cation.
Todor Dudev & Carmay Lim*,
J. Am. Chem. Soc.
(2006)
128,
10541–10548.
|
|
81. A
DFT/CDM Study of Metal–Carboxylate
Interactions in Metalloproteins: Factors Governing the Maximum
Number of
Metal–Bound
Carboxylates.
Todor Dudev & Carmay Lim*,
J. Am. Chem. Soc.
(2006)
128:
1553–1561.
|
|
80.
Quantifying Polypeptide Conformational Spaces.
David Sullivan* & Carmay Lim*,
J. Phys. Chem. B (2006)
110,
16707–16717.
|
|
79. Toward
Absolute Density of States Calculation for
Proteins.
David Sullivan* & Carmay Lim*,
J. Phys. Chem. B (2006)
110,
12125–12128.
|
|
78.
Computational Studies of the Coordination Stereochemistry,
Bonding & Metal Selectivity of Mercury.
Hui-Chung Tai & Carmay Lim*.
J. Phys. Chem. A, Truhlar issue
(2006)
110:
452–462.
|
|
77.
Empirical Force Fields For Biologically Active Divalent Metal
Cations in Water.
C. Satheesan Babu* & Carmay Lim*, J.
Phys. Chem. A, Truhlar issue (2006)
110:
691–699.
|
|
76. Zn
Protein Simulations Including Charge Transfer and Local
Polarization Effects.
Dmitri V. Sakharov & Carmay Lim*, J.
Am. Chem. Soc.
(2005)
127:
4921–4929.
|
|
75.
Differential Effects of the Zn–His–
[Asp/Glu,Bkb] Triad on Zn–Core
Stability and Reactivity.
Yen-lin Lin, Yu-ming Lee & Carmay Lim*,
J. Am. Chem. Soc.
(2005)
127: 11336–11347.
|
|
74. Factors
Governing the Substitution of La3+
for Ca2+
and Mg2+
in Metalloproteins: A DFT/CDM
Study.
Todor Dudev, Li-Ying Chang & Carmay Lim*,
J. Am. Chem. Soc.
(2005)
127:
4091–4103.
|
|
73.
Configurational Entropy of Proteins: Covariance Matrix vs.
Cumulative Distribution Calculations.
David Sullivan &
Carmay Lim*, J. Chin. Chem. Soc.
(2004)
51:
1209–1219.
|
|
72.
Oxyanion Selectivity in Sulfate and Molybdate Transport
Proteins: An Ab Initio/CDM Study.
Todor Dudev & Carmay Lim*,
J. Am. Chem. Soc.
(2004)
126:
10296–10305.
|
|
71.
Monodentate vs. Bidentate Carboxylate Binding in Magnesium and
Calcium Proteins: What Are the Basic Principles?
Todor Dudev & Carmay Lim*, J. Phys.
Chem. B
(2004)
108:
4546–4557.
|
|
70. Factors
Governing the Protonation State of Zn-bound
Histidine in Proteins
Yen-lin Lin & Carmay Lim*,
J. Am. Chem. Soc.
(2004)
126:
2602–2612.
|
|
69. A
Combined Experimental and Theoretical Study of Divalent Metal
Ion Selectivity and Function in Proteins. Application to E.
coli Ribonuclease
H1.
C.
Satheesan Babu,
Todor Dudev,
Ruby Casareno, Jimmy A. Cowan &
Carmay Lim*,
J. Am. Chem. Soc.
(2003) 125:
9318–9328.
|
|
68. 1st–2nd
Shell Interactions in Metal Binding Sites in Proteins: A PDB
Survey+DFT/CDM Calculations.
Todor
Dudev, Yen-lin Lin, Minko Dudev & Carmay Lim*,
J. Am. Chem. Soc. (2003)
125:
3168–3180.
|
|
67. Metal
Binding and Selectivity in Zinc Proteins.
Todor Dudev* & Carmay Lim*, J. Chin.
Chem. Soc.
(2003)
50:
1093–1102.
|
|
66.
Principles Governing Mg, Ca, and Zn Binding and Selectivity in
Proteins.
Todor Dudev* & Carmay Lim*, Chemical
Reviews (2003)
103:
773–787.
|
|
65.
Inducing Antigenic Cross–Reactivity
against B cells in Mice by Immunizing with Human Iga
to Mice.
Jim
J.C. Sheu, Tammy Cheng, Carmay Lim & Tse Wen Chang*,
J. Immunology (2003)
170:
1158–1166.
|
|
64.
Nonconvergence of the Solute Potential in an Infinite Solvent &
Its Implications in Continuum Models.
Pei-Kun Yang & Carmay Lim*, J. Phys.
Chem. B
(2002) 106:
12093–12096.
|
|
63.
Representing an Infinite Solvent System with a Rectangular
Finite System Using Image Charges.
Pei-Kun Yang, Shu-Huey Liaw & Carmay Lim*,
J. Phys. Chem. B
(2002) 106:
2973–2982.
|
|
62. On the
Charge and Molecule Based Summations of Solvent Electrostatic
Potentials and the Validity of Electrostatic
Linear Response in Water.
C. Satheesan Babu, Pei-Kun Yang & Carmay Lim*,
J. Biol. Phys. (2002)
28: 95–113.
|
|
61. Factors
Governing Intrinsic Chemical Reactivity Differences between
Clavulanic & Penicillanic Acids.
Yen-lin Lin,
Nai-yuan Chang & Carmay Lim*, J. Am.
Chem. Soc. (2002)
124:
12042–12053.
|
|
60. Long–Range
Effects of Mutating R248 to Q/W in the p53 Core Domain.
Sergey Yu Noskov, Jon D. Wright & Carmay Lim*,
J. Phys. Chem. B
(2002)
106:
13047–13057.
|
|
59. Factors
Governing Loss & Rescue of DNA Binding upon Single & Double
Mutations in the p53–CD.
Jon D. Wright, Sergey Yu Noskov & Carmay Lim*,
Nucleic Acids Res.
(2002) 30:
1563–1574.
|
|
58. Factors
Governing the Protonation State of Cysteines in Proteins.
An Ab Initio/CDM Study.
Todor Dudev & Carmay Lim*,
J. Am. Chem. Soc.
(2002) 124:
6759–6766.
|
|
57. Free
Energy Decomposition of Protein–Protein
Interactions.
Sergey Yu Noskov & Carmay Lim*,
Biophys. J.
(2001)
81:
737–750.
|
|
56.
Constructing a Human Membrane & Secreted Protein–Enriched
cDNA Library using a Minimal Set of PCR Primers.
Fan Yi, Chih Yuan Wu,
Cheng Wei Chen, Tse Wen Chang*
& Carmay Lim*,
Nucleic Acids Res.
(2001) 29:
e114.
|
|
55. A Fast
Method For Predicting Amino Acid Mutations That Lead to
Unfolding.
Jon D. Wright
& Carmay Lim*, Prot. Engineering
(2001)
14:
479–486.
|
|
54.
Incorporating Nonlinear Solvent Response in Continuum Dielectric
Models Using A Two–Sphere
Description of the
Born Radius.
C. Satheesan Babu & Carmay Lim*, J.
Phys. Chem. A
(2001)
105:
5030–5036.
|
|
53.
Solvation Free Energies of Polar Molecular Solutes: Application
of the Two–Sphere
Born Radius in Continuum Models
of Solvation.
C. Satheesan Babu & Carmay Lim*, J.
Chem. Phys.
(2001)
114: 889–899.
|
|
52.
Modeling Zn2+-Cysteinate
Complexes in Proteins.
Todor Dudev & Carmay Lim*, J. Phys.
Chem. B
(2001)
105:
10709–10714.
|
|
51. Metal
Selectivity in Metalloproteins: Zn2+
vs. Mg2+.
Todor Dudev & Carmay Lim*, J. Phys.
Chem. B
(2001)
105:
4446–4452.
|
|
50.
Conformational Analysis of Long Spacers in PROSITE Patterns.
Kuen-Yi Lin, Jon Wright & Carmay Lim*,
J. Mol. Biol.
(2000)
299: 537–548.
|
|
49. Design,
Synthesis, and SAR of Novel Carbapenem Antibiotics with High
Stability to Xanthomonas
maltophilia
Oxyiminocephalosporinase Type II.
Gholam H. Hakimelahi*,
Ali A. Moosavi-Mohavedi, Shwu-Chen Tsay, Fu-Yuan Tsai,
Jon Wright, Todor Dudev,
Shahram Hakimelahi &
Carmay Lim*, J. Med. Chem.
(2000) 43:
3632–3640.
|
|
48.
Tetrahedral vs. Octahedral Zinc Complexes with Ligands of
Biological Interest: A DFT/CDM Study.
Todor Dudev & Carmay Lim*, J. Am.
Chem. Soc.
(2000) 122:
11146–11153.
|
|
47. Metal
Binding in Proteins: The Effect of the Dielectric Medium.
Todor Dudev & Carmay Lim*, J. Phys.
Chem. B
(2000) 104:
3692–3694.
|
|
46.
Incremental Binding Free Energies In Mg2+
Complexes: A DFT Study.
Todor Dudev & Carmay Lim*, J. Phys.
Chem.
A (1999)
103:
8093–8100.
|
|
45.
Competitive Binding in Mg Coordination Chemistry: Water vs
Ligands of Biological Interest.
Todor Dudev, Jimmy Cowan & Carmay Lim*,
J. Am. Chem. Soc.
(1999)
121: 7665–7673.
|
|
44. Theory
of Ionic Hydration: New Insights from Simulation and Experiment.
C. Satheesan Babu & Carmay Lim*, J.
Phys. Chem. B (1999)
103:
7958–7968.
|
|
43. A New
Interpretation of the Effective Born Radius from Simulation and
Experiment.
C. Satheesan Babu & Carmay Lim*,
Chem. Phys. Lett. (1999)
310:
225–228.
|
|
42.
Ring Strain vs. Solvent Effects in Phosphate
Base Hydrolysis.
Carmay Lim,
Phosphorus, Sulfur & Silicon
(1999) 144–146:
769–773.
|
|
41. Exploring
the Dynamic Information Content of a Protein NMR Structure:
Comparison of a Molecular Dynamics Simulation with
the NMR and X–Ray
Structures of E. Coli
RNase HI.
Marios Philippopoulos & Carmay Lim*,
Proteins: Structure, Function & Genetics
(1999)
36:
87–110.
|
|
40.
Prediction of an Anti–IgE
Binding Site on
IgE.
Jon Wright & Carmay Lim*,
Protein Engineering
(1998)
11: 421–427.
|
|
39. Ring
Strain Energies from Ab Initio
Calculations.
Todor Dudev & Carmay Lim*, J. Am.
Chem. Soc.
(1998)
120, 4450–4458.
|
|
38. Factors
Governing the Enhanced Reactivity of Five–Membered
Cyclic Phosphate Esters.
Nai-Yuan Chang & Carmay Lim*, J. Am.
Chem. Soc.
(1998)
120, 2156–2167.
|
|
37. Protein
Dynamics: Molecular Dynamics Simulation, NMR Spectroscopy and X–ray
Crystallography.
Marios Philippopoulos & Carmay Lim*,
Advances in Computational Life Sciences
(1998)
Vol. 2: Humans to
Proteins. M. Michalewicz (Ed.), CSIRO
Mathematical & Information Sciences
|
|
36. An
ab Initio Study
of Nucleophilic Attack of Trimethyl
Phosphate.
Nai-Yuan Chang & Carmay Lim*, J.
Phys. Chem. A
(1997)
101,
8706–8713.
|
|
35.
Accuracy and Precision of NMR Relaxation Experiments and MD
Simulations for Characterizing Protein Dynamics.
Marios Philippopoulos, Arthur Mandel, Arthur G. Palmer III* &
Carmay Lim*,
Proteins: Structure,
Function, and Genetics (1997)
28,
481–493.
|
|
34.
Structural Characterization of the Phosphotyrosine Binding
Region of a High Affinity SH2 Domain–Phosphopeptide
Complex by
MD Simulation and
Chemical Shift Calculations.
Ming-Hsiang Feng, Marios Philippopoulos, Alexander D. MacKerell
Jr. & Carmay Lim*,
J. Am. Chem. Soc.
(1996)
118, 11265–11277.
|
|
33.
Positive Charge at Position 549 is Essential for
Phosphatidylinositol 4,5–Bisphosphate
but not Phosphatidylinositol–
Hydrolyzing Activities of
Human Phospholipase Cδ1.
Li-Ping Wang, Carmay Lim, Y.-S. Kuan, Chih-lin Chen, Hwei-Fang
Chen & King Klim*,
J. Biol. Chem.
(1996)
271, 24505–24516.
|
|
32. The
Binding Mode of an E–64
Analog to the Active site of Cathepsin B.
Ming Hsiang Feng, Shek Ling Chan, YueFang Xiang, Carol P. Huber
& Carmay Lim*,
Protein Engineering
(1996)
9,
977–986.
|
|
31. A
Commentary on the Relationship Between Continuum Dielectric
Theory, and Thermodynamics.
Shek Ling Chan, Wen Ching Hu & Carmay Lim*,
Proceedings of HPC–Asia
(1995).
|
|
30. Dynamic
Model of Lignin Growing in Restricted Spaces.
Marc Roussel & Carmay Lim*,
Macromolecules
(1995)
28, 370–376.
|
|
29.
Discrete, Dynamic Polymer Modeling: A Pseudo–Diatomic
Model of Lignin.
Marc Roussel & Carmay Lim*, J. Comp.
Chem.
(1995)
16,
1181–1191.
|
|
28.
Identifying the Mechanism of Protein Loop Closure: A Molecular
Dynamics Simulation of the Bacillus Stearothermophilus LDH
Loop in Solution.
Marios Philippopoulos, YueFang Xiang & Carmay Lim*,
Protein Engineering
(1995)
8, 565–573.
|
|
27.
Molecular Dynamics Simulation of E.
Coli
Ribonuclease HI in Solution: Correlation with NMR and X–ray
Data and Insights
into Biological Function.
Marios Philippopoulos & Carmay Lim*,
J. Mol. Biol. (1995)
254,
771–792.
|
|
26.
Solution Free Energies from a Combined Quantum Mechanical &
Continuum Dielectric Approach.
Carmay Lim*,
Shek Ling Chan & Philip Tole, in ACS
Symposium Series No. 568: Structure
and Reactivity in Aqueous
Solution. C.J. Cramer & G.D. Truhlar
(editors), American
Chemical Society
(1994).
|
|
25.
Computational Approaches to the Blood Substitute Problem.
Shek Ling Chan & Carmay Lim*,
Chemistry
(1994)
52, 261–268.
|
|
24.
Conformational Distribution of a Tetrapeptide in Solution Using
a Combined Random Search and Continuum
Dielectric Approach.
Shek Ling Chan & Carmay Lim*, J.
Phys. Chem. (1994)
98,
12805–12814.
|
|
23. Reducing
the Error due to the Uncertainty in the Born Radius in Continuum
Dielectric Calculations.
Shek Ling Chan & Carmay Lim*, J.
Phys. Chem.
(1994)
98, 692–695.
|
|
22.
Internal Motions in the Molecular Tumbling Regime: Effect on NMR
Dipolar Cross–relaxation
and Interproton
Distance Determination.
Marios Philippopoulos & Carmay Lim*,
J. Phys. Chem. (1994)
98,
8264–8273.
|
|
21. The
Double Catalytic Triad, Cys25–His159–Asp158
and Cys25–His159–Asn175,
in Papain Catalysis: Role of Asp158
and Asn175.
Jing Wang, YueFang Xiang & Carmay Lim*,
Protein Engineering (1994)
7, 75–82.
|
|
20. The
Significance of Electrostatic Effects in Phospho–Ester
Hydrolysis.
Philip Tole & Carmay Lim*, J. Am.
Chem. Soc.
(1994)
116,
3922–3931.
|
|
19.
Simulation Analysis of the Binding Interactions in the RNase
A/3’–UMP
Enzyme–Product
Complex as a Function of pH.
John Straub, Carmay Lim & Martin Karplus*,
J. Am. Chem. Soc.
(1994)
116, 2591–2599.
|
|
18. Do
Stereoelectronic Effects Control the Structure and Reactivity of
TBP Phosphoesters?
Philip Tole &
Carmay Lim*, in ACS Symposium Series
No. 539: The Anomeric Effect and
Associated
Stereoelectronic Effects. G.R.
Thatcher (ed.), Am. Chem. Soc. (1993).
|
|
17. New
Insights into the Base–Catalyzed
Hydrolysis of Methyl Ethylene Phosphate.
Philip Tole & Carmay Lim*, J. Phys.
Chem.
(1993)
97, 6212–6219.
|
|
16.
Concerted Hydroxyl Ion Attack and Pseudorotation in a Quantum
Mechanical Study of Methyl Ethylene Phosphate Hydrolysis.
Carmay Lim* & Philip Tole, J. Phys.
Chem.
(1992)
96, 5217–5218.
|
|
15.
Endocyclic and Exocyclic Cleavage of Phosphorane
Monoanion: A Detailed Mechanism of the RNase A
Transphosphorylation Step.
Carmay Lim* & Philip Tole, J. Am.
Chem. Soc. (1992)
114,
7245–7252.
|
|
14.
Absolute pKa Calculations with Continuum Dielectric Methods.
Carmay Lim, Don Bashford & Martin Karplus*,
J. Phys. Chem. (1991)
95,
5610–5620.
|
|
13.
Dianionic Pentacoordinate Species in the Base–Catalyzed
Hydrolysis of Ethylene and Dimethyl Phosphate.
Annick Dejaegere, Carmay
Lim & Martin Karplus*, J. Am. Chem.
Soc.
(1991) 113,
4353–4355.
|
|
12.
Nonexistence of Dianionic Pentacovalent Intermediates in an
ab Initio Study
of the Base–Catalyzed
Hydrolysis of
Ethylene Phosphate.
Carmay Lim & Martin Karplus*, J. Am.
Chem. Soc. (1990)
112,
5872–5873.
|
|
11.
Simulation Analysis of Structures on the Reaction Pathway of
RNase A.
Karen Haydock, Carmay Lim, Axel Brünger & Martin Karplus*,
J. Am. Chem. Soc.
(1990)
112,
3826–3831.
|
|
10.
Molecular and Harmonic Dynamics Simulations of Proteins.
Carmay Lim, Dzung Nguyen, John Straub, Bruce Tidor & Martin
Karplus,
John von
Neumann National
Supercomputer
Center, Annual Research Report
(1988).
|
|
9.
Trajectory Studies of Hyperthermal
Xenon Scattering from GaAs (110).
Carmay Lim, John C. Tully, Aviv Amirav, Paula Trevor & Mark J.
Cardillo,
J. Chem.
Phys.
(1987)
87, 1808–1816.
|
|
8.
Atom–surface
Scattering Dynamics at Hyperthermal Energies.
Aviv Amirav, Mark J. Cardillo, Paula Trevor, Carmay Lim & John
C. Tully,
J. Chem.
Phys.
(1987)
87, 1796–1807.
|
|
7.
Molecular Dynamics of Nonequilibrium
Infrequent Events: Laser–induced
Desorption from Surfaces.
Carmay Lim & John C. Tully, J. Chem.
Phys.
(1986)
85, 7423–7433.
|
|
6.
The Effect of Vibrational–Rotational
Disequilibrium on the Rate Constant for an Atom–Transfer
Reaction.
Carmay Lim & Donald G. Truhlar*, J.
Phys. Chem.
(1986)
90,
2616–2634.
|
|
5.
New Techniques for the Study of
Nonequilibrium Effects in Non–First–Order
Systems.
Carmay Lim & Donald G. Truhlar, Chem.
Phys. Lett.
(1985)
114,
253–257.
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4.
Internal–state
Nonequilibrium Effects for a Fast, Second–Order
Reaction.
Carmay Lim &
Donald G. Truhlar*, J. Phys. Chem.
(1985)
89, 5–7.
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3.
Study of Mixture Effects in the
Nonequilibrium Kinetics of Homonuclear Diatomic Dissociation and
Recombination.
Carmay Lim & Donald G. Truhlar*, J.
Phys. Chem.
(1984)
88, 778–792.
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2.
Nonequilibrium Effects in Chemical
Kinetics: Straight–Line
Paths for Homonuclear Diatomic Dissociation–
Recombination Process.
Carmay Lim & Donald G. Truhlar*, J.
Phys. Chem.
(1983)
81,
2683–2699.
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1.
The Existence of Straight–Line
Paths, Invariant Vectors, and Invariant Tensors Characterizing
Nonequilibrium State
Distributions during
Chemical Reactions.
Carmay Lim & Donald G. Truhlar, J.
Chem. Phys.
(1983)
79,
3296–3306.
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