Home / Articles /   Computational NMR of heavy nuclei involving 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb  

  Computational NMR of heavy nuclei involving 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb  

Leonid Borisovich Krivdin
1 A. E. Favorsky Irkutsk Institute of Chemistry, Siberian Branch of the Russian Academy of Sciences
2 Angarsk State Technical University
Published 30 November 2020
25
Share
Cite this
GOST
 | 
Cite this
GOST
Krivdin L. B. Computational NMR of heavy nuclei involving 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb // Russian Chemical Reviews. 2020. Vol. 90. No. 9. pp. 1166-1212.
GOST all authors (up to 50)
Krivdin L. B. Computational NMR of heavy nuclei involving 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb // Russian Chemical Reviews. 2020. Vol. 90. No. 9. pp. 1166-1212.
RIS
 | 
Cite this
RIS
TY - JOUR
DO - 10.1070/RCR4976
UR - https://rcr.colab.ws/publications/10.1070/RCR4976
TI - Computational NMR of heavy nuclei involving 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb
T2 - Russian Chemical Reviews
AU - Krivdin, Leonid Borisovich
PY - 2020
DA - 2020/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 1166-1212
IS - 9
VL - 90
ER -
BibTex
 | 
Cite this
BibTex (up to 50 authors)
@article{2020_Krivdin,
author = {Leonid Borisovich Krivdin},
title = { Computational NMR of heavy nuclei involving 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb },
journal = {Russian Chemical Reviews},
year = {2020},
volume = {90},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RCR4976},
number = {9},
pages = {1166--1212},
doi = {10.1070/RCR4976}
}
MLA
Cite this
MLA
Krivdin, Leonid Borisovich. “ Computational NMR of heavy nuclei involving 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb .” Russian Chemical Reviews, vol. 90, no. 9, Nov. 2020, pp. 1166-1212. https://rcr.colab.ws/publications/10.1070/RCR4976.
Views / Visits / Downloads
23 / 22 / 4

Keywords

computational NMR
DFT
four-component relativistic methods
heavy nuclei
relativistic calculations
two-component ZORA methods

Abstract

The present review addresses the computation of the NMR parameters of 109Ag, 113Cd, 119Sn, 125Te, 195Pt, 199Hg, 205Tl, and 207Pb isotopes. The presented material is based on papers that appeared mainly in the interim period of 2000--2020. These calculations are rapidly developing and becoming of increasing practical interest on the cutting edge of modern computational chemistry. The review focuses on the most essential papers in this area, concentrating on the computational aspects of such calculations together with their structural and stereochemical applications in organometallic chemistry, which seems to be urgent and timely.

The bibliography includes 173 references.

References

1.
rcr_90_9_1166_bib1
Sauer
2012
3.
The quantum-chemical calculation of NMR indirect spin-spin coupling constants
Helgaker T., Jaszuński M., Pecul M.
Progress in Nuclear Magnetic Resonance Spectroscopy , 2008
4.
Polarization propagators: A powerful theoretical tool for a deeper understanding of NMR spectroscopic parameters
Aucar G.A., Romero R.H., Maldonado A.F.
International Reviews in Physical Chemistry , 2010
5.
rcr_90_9_1166_bib5
Contreras
2013
8.
Recent Advances in Theoretical Calculations of Indirect Spin–Spin Coupling Constants
9.
Calculating nuclear magnetic resonance chemical shifts in solvated systems
10.
rcr_90_9_1166_bib10
Xiao
2017
11.
rcr_90_9_1166_bib11
Autschbach
2004
12.
rcr_90_9_1166_bib12
Autschbach
2004
13.
rcr_90_9_1166_bib13
Autschbach
Phyl. Trans. Royal Soc. A , 2014
14.
rcr_90_9_1166_bib14
Repisky
2016
16.
Computational1H NMR: Part 1. Theoretical background
Krivdin L.B.
Magnetic Resonance in Chemistry , 2019
17.
Computational 1 H NMR: Part 2. Chemical applications
Krivdin L.B.
Magnetic Resonance in Chemistry , 2019
18.
Computational 1 H NMR: Part 3. Biochemical studies
Krivdin L.B.
Magnetic Resonance in Chemistry , 2019
19.
Theoretical calculations of carbon-hydrogen spin-spin coupling constants.
Krivdin L.B.
Progress in Nuclear Magnetic Resonance Spectroscopy , 2018
20.
Computational protocols for calculating 13C NMR chemical shifts.
Krivdin L.B.
Progress in Nuclear Magnetic Resonance Spectroscopy , 2019
21.
Calculation of 15 N NMR chemical shifts: Recent advances and perspectives
Krivdin L.B.
Progress in Nuclear Magnetic Resonance Spectroscopy , 2017
23.
Computational aspects of 19F NMR
Krivdin L.B.
Russian Chemical Reviews , 2020
24.
Computational liquid-phase and solid-state 29Si NMR
Krivdin L.B.
Russian Chemical Reviews , 2020
25.
Recent advances in computational 31 P NMR: Part 1. Chemical shifts
Krivdin L.B.
Magnetic Resonance in Chemistry , 2019
27.
Recent advances in computational liquid-phase 77Se NMR
Krivdin L.B.
Russian Chemical Reviews , 2021
28.
Relativistic Heavy-Neighbor-Atom Effects on NMR Shifts: Concepts and Trends Across the Periodic Table
Vı́cha J., Novotný J., Komorovsky S., Straka M., Kaupp M., Marek R.
Chemical Reviews , 2020
29.
The Cinderella Nuclei
Mann B.E.
Annual Reports on NMR Spectroscopy , 1991
30.
An experimental and computational NMR study of organometallic nine-membered rings: Trinuclear silver(I) complexes of pyrazolate ligands
Alkorta I., Elguero J., Dias H.V., Parasar D., Martín-Pastor M.
Magnetic Resonance in Chemistry , 2020
33.
Solution structure of a DNA double helix with consecutive metal-mediated base pairs
Johannsen S., Megger N., Böhme D., Sigel R.K., Müller J.
Nature Chemistry , 2010
36.
DFT calculation of NMR δ(113Cd) in cadmium complexes
Casella G., Ferrante F., Saielli G.
Polyhedron , 2016
38.
Relativistic effects on group-12 metal nuclear shieldings
Roukala J., Maldonado A.F., Vaara J., Aucar G.A., Lantto P.
Physical Chemistry Chemical Physics , 2011
39.
Coordination Geometries of Zn(II) and Cd(II) in Phosphotriesterase:  Influence of Water Molecules in the Active Site
41.
Comments concerning the computation of cadmium-113 chemical shifts
Ellis P.D., Odom J.D., Lipton A.S., Gulick J.M.
Journal of the American Chemical Society , 1993
43.
Quantum Chemical Calculations of Cadmium Chemical Shifts in Inorganic Complexes
Kidambi S., Ramamoorthy A.
Journal of Physical Chemistry A , 2002
46.
First principle calculations of 113Cd chemical shifts for proteins and model systems
Hemmingsen L., Olsen L., Antony J., Sauer S.P.
Journal of Biological Inorganic Chemistry , 2004
47.
rcr_90_9_1166_bib47
Li
J. Phys. Chem. B , 2008
48.
Theoretical study on metal NMR chemical shifts: electronic mechanism of the tin chemical shift
Nakatsuji H., Inoue T., Nakao T.
The Journal of Physical Chemistry , 1992
50.
rcr_90_9_1166_bib50
Kirpekar
Theor. Chim. Acta , 1997
51.
Relativistic four-component calculations of indirect nuclear spin–spin couplings in MH4 (M=C, Si, Ge, Sn, Pb) and Pb(CH3)3H
Enevoldsen T., Visscher L., Saue T., Jensen H.J., Oddershede J.
Journal of Chemical Physics , 2000
52.
A Simple Relativistic Correction to the Nuclear Spin−Spin Coupling Constant
Khandogin J., Ziegler T.
Journal of Physical Chemistry A , 1999
53.
DFT Calculations of 119Sn Chemical Shifts Using Gauge-Including Atomic Orbitals and Their Interpretation via Group Properties
Vivas-Reyes R., De Proft F., Biesemans M., Willem R., Geerlings P.
Journal of Physical Chemistry A , 2002
54.
DFT calculations of 119Sn chemical shifts for organometallic cyanides
Avalle P., Harris R.K., Fischer R.D.
Physical Chemistry Chemical Physics , 2002
55.
Calculations of magnetic shielding for the tin nucleus in a series of tetra-organotin compounds using density functional theory
Avalle P., Harris R.K., Karadakov P.B., Wilson P.J.
Physical Chemistry Chemical Physics , 2002
57.
Relativistic DFT Calculation of 119Sn Chemical Shifts and Coupling Constants in Tin Compounds
Bagno A., Casella G., Saielli G.
Journal of Chemical Theory and Computation , 2005
58.
rcr_90_9_1166_bib58
Lantto
J. Chem. Phys. , 2006
61.
rcr_90_9_1166_bib61
Křstková
J. Chem. Phys. , 2015
64.
Structure ofD-ribonic acid-dimethyltin(IV) in coordinating solvents: an experimental and DFT119Sn NMR study
Bagno A., Bertazzi N., Casella G., Pellerito L., Saielli G., Sciacca I.D.
Journal of Physical Organic Chemistry , 2006
66.
rcr_90_9_1166_bib66
Casella
Eur. J. Org. Chem. , 2009
69.
Rusakova Irina Leonidovna, Krivdin Leonid Borisovich
Mendeleev Communications , 2017
71.
Quasirelativistic study of125Te nuclear magnetic shielding constants and chemical shifts
Hada M., Wan J., Fukuda R., Nakatsuji H.
Journal of Computational Chemistry , 2001
73.
NMR shielding constants in SeH2 and TeH2
Jaszuński M., Olejniczak M.
Molecular Physics , 2013
75.
First example of a high-level correlated calculation of the indirect spin–spin coupling constants involving tellurium: tellurophene and divinyl telluride
Rusakov Y.Y., Krivdin L.B., Østerstrøm F.F., Sauer S.P., Potapov V.A., Amosova S.V.
Physical Chemistry Chemical Physics , 2013
79.
Iron—sulfur proteins: new roles for old clusters
Johnson M.K.
Current Opinion in Chemical Biology , 1998
83.
The 125Te Chemical Shift of Diphenyl Ditelluride: Chasing Conformers over a Flat Energy Surface
Bortoli M., Dalla Tiezza M., Muraro C., Saielli G., Orian L.
Molecules , 2019
84.
A 125Te NMR study of the exchange reaction between diarylditellurides
Granger P., Chapelle S., McWhinnie W.R., Al-Rubaie A.
Journal of Organometallic Chemistry , 1981
85.
Weak Te,Te Interactions through the Looking Glass of NMR Spin-Spin Coupling
Bühl M., Knight F.R., Křístková A., Malkin Ondík I., Malkina O.L., Randall R.A., Slawin A.M., Woollins J.D.
Angewandte Chemie - International Edition , 2013
86.
Conformational Dependence of Through-Space Tellurium-Tellurium Spin-Spin Coupling inPeri-Substituted Bis(Tellurides)
Knight F.R., Diamond L.M., Arachchige K.S., Sanz Camacho P., Randall R.A., Ashbrook S.E., Bühl M., Slawin A.M., Woollins J.D.
Chemistry - A European Journal , 2014
88.
What Most Affects the Accuracy of 125Te NMR Chemical Shift Calculations
Rusakov Y.Y., Rusakova I.L.
Journal of Physical Chemistry A , 2020
92.
NMR parameters of FNNF as a test for coupled-cluster methods: CCSDT shielding and CC3 spin–spin coupling
Jaszuński M., Sauer S.P., Faber R., Wilson D.J.
Physical Chemistry Chemical Physics , 2020
93.
The Second-Order-Polarization-Propagator-Approximation (SOPPA) in a four-component spinor basis
Schnack-Petersen A.K., Simmermacher M., Fasshauer E., Jensen H.J., Sauer S.P.
Journal of Chemical Physics , 2020
97.
Theoretical Investigation of the Apparently Irregular Behavior of Pt−Pt Nuclear Spin−Spin Coupling Constants
Autschbach J., Igna C.D., Ziegler T.
Journal of the American Chemical Society , 2003
98.
rcr_90_9_1166_bib98
Autschbach
J. Am. Chem. Soc. , 2003
99.
NMR properties of platinumthallium bonded complexes: analysis of relativistic density functional theory results
104.
Structural features and NMR 195Pt spectroscopy of cooperite monocrystals (natural Pts)
Ivanov A.V., Palazhchenko V.I., Strikha V.E., Antzutkin O.N., Forsling W.
Doklady Earth Sciences , 2006
105.
Single-Crystalline cooperite (PtS): Crystal-Chemical characterization, ESR spectroscopy, and 195Pt NMR spectroscopy
Rozhdestvina V.I., Ivanov A.V., Zaremba M.A., Antsutkin O.N., Forsling W.
Crystallography Reports , 2008
106.
Experimental and First-Principles NMR Analysis of Pt(II) Complexes With O,O′-Dialkyldithiophosphate Ligands
Roukala J., Orr S.T., Hanna J.V., Vaara J., Ivanov A.V., Antzutkin O.N., Lantto P.
Journal of Physical Chemistry A , 2016
107.
Semenov Valentin Alexandrovich, Rusakov Yury Yur'evich, Samultsev Dmitriy Olegovich, Krivdin Leonid Borisovich
Mendeleev Communications , 2019
108.
Computational Multinuclear NMR of Platinum Complexes: A Relativistic Four-Component Study
Semenov V.A., Samultsev D.O., Rusakova I.L., Krivdin L.B.
Journal of Physical Chemistry A , 2019
109.
Structure, solvent, and relativistic effects on the NMR chemical shifts in square-planar transition-metal complexes: assessment of DFT approaches
Vícha J., Novotný J., Straka M., Repisky M., Ruud K., Komorovsky S., Marek R.
Physical Chemistry Chemical Physics , 2015
110.
Understanding the Electronic Factors Responsible for Ligand Spin–Orbit NMR Shielding in Transition-Metal Complexes
Vícha J., Foroutan-Nejad C., Pawlak T., Munzarová M.L., Straka M., Marek R.
Journal of Chemical Theory and Computation , 2015
111.
Validation of Relativistic DFT Approaches to the Calculation of NMR Chemical Shifts in Square-Planar Pt2+and Au3+Complexes
Pawlak T., Munzarová M.L., Pazderski L., Marek R.
Journal of Chemical Theory and Computation , 2011
112.
A Relativistic Quantum-Chemical Analysis of the trans Influence on 1H NMR Hydride Shifts in Square-Planar Platinum(II) Complexes
Greif A.H., Hrobárik P., Hrobáriková V., Arbuznikov A.V., Autschbach J., Kaupp M.
Inorganic Chemistry , 2015
113.
Solvent-Driven P–S vs P–C Bond Formation from a Diplatinum(III) Complex and Sulfur-Based Anions
Fortuño C., Martín A., Mastrorilli P., Gallo V., Todisco S.
Organometallics , 2017
115.
Uncovering Intramolecular π-Type Hydrogen Bonds in Solution by NMR Spectroscopy and DFT Calculations
Mastrorilli P., Gallo V., Todisco S., Latronico M., Saielli G.
Chemistry - A European Journal , 2016
116.
Bridging and Terminal (Phosphanido)platinum Complexes
Mastrorilli P.
European Journal of Inorganic Chemistry , 2008
117.
Polynuclear platinum phosphanido/phosphinito complexes: formation of P–O and P–O–P bonds through reductive coupling processes
Ara I., Forniés J., Ibáñez S., Mastrorilli P., Todisco S., Gallo V.
Dalton Transactions , 2016
118.
Donor Behaviour of Anionic and Asymmetric Phosphanido Derivatives of Platinum and Palladium
Arias A., Forniés J., Fortuño C., Martín A., Mastrorilli P., Gallo V., Latronico M., Todisco S.
European Journal of Inorganic Chemistry , 2013
119.
rcr_90_9_1166_bib119
Arias
Inorg. Chem. , 2013
120.
Oxidatively Induced P–O Bond Formation through Reductive Coupling between Phosphido and Acetylacetonate, 8-Hydroxyquinolinate, and Picolinate Groups
Arias A., Forniés J., Fortuño C., Martín A., Mastrorilli P., Todisco S., Latronico M., Gallo V.
Inorganic Chemistry , 2013
121.
Formation of P–C Bond through Reductive Coupling between Bridging Phosphido and Benzoquinolinate Groups. Isolation of Complexes of the Pt(II)/Pt(IV)/Pt(II) Sequence
Arias A., Forniés J., Fortuño C., Martín A., Latronico M., Mastrorilli P., Todisco S., Gallo V.
Inorganic Chemistry , 2012
122.
Multinuclear Solid-State NMR and DFT Studies on Phosphanido-Bridged Diplatinum Complexes
Mastrorilli P., Todisco S., Bagno A., Gallo V., Latronico M., Fortuño C., Gudat D.
Inorganic Chemistry , 2015
123.
31P and 195Pt solid-state NMR and DFT studies on platinum(i) and platinum(ii) complexes
Todisco S., Saielli G., Gallo V., Latronico M., Rizzuti A., Mastrorilli P.
Dalton Transactions , 2018
126.
A Theoretical Study of the Large Hg−Hg Spin−Spin Coupling Constants in Hg22+, Hg32+, and Hg22+−Crown Ether Complexes
127.
10.1021/ja073166+
128.
rcr_90_9_1166_bib128
Malleier
Chem. Commun. , 2001
130.
Computational NMR spectroscopy: reversing the information flow
Bagno A., Saielli G.
Theoretical Chemistry Accounts , 2006
131.
Self-Assembly, Characterisation, and Crystal Structure of Multinuclear Metal Complexes of the [2×3] and [3×3] Grid-Type
Breuning E., Hanan G.S., Romero-Salguero F.J., Garcia A.M., Baxter P.N., Lehn J., Wegelius E., Rissanen K., Nierengarten H., van Dorsselaer A.
Chemistry - A European Journal , 2002
136.
rcr_90_9_1166_bib136
Götz
J. Chem. Phys. , 2014
137.
rcr_90_9_1166_bib137
Autschbach
Enc. Nucl. Magn. Reson. , 2002
138.
rcr_90_9_1166_bib138
Gryff-Keller
J. Phys. Chem. A , 2012
140.
Metal-Mediated J Coupling in DNA Base Pairs:  Relativistic DFT Predictions
Bagno A., Saielli G.
Journal of the American Chemical Society , 2007
141.
rcr_90_9_1166_bib141
Hinton
Bull. Magn. Reson. , 1992
144.
Spectral and Structural Characterization of Amidate-Bridged Platinum−Thallium Complexes with Strong Metal−Metal Bonds
Chen W., Liu F., Matsumoto K., Autschbach J., Le Guennic B., Ziegler T., Maliarik M., Glaser J.
Inorganic Chemistry , 2006
147.
rcr_90_9_1166_bib147
Vícha
Inorg. Chem. , 2016
151.
Interpretation of the Kohn-Sham orbital energies as approximate vertical ionization potentials
Chong D.P., Gritsenko O.V., Baerends E.J.
Journal of Chemical Physics , 2002
153.
Calculations of the indirect nuclear spin-spin coupling constants of PbH 4
Kirpekar S., Sauer S.P.
Theoretical Chemistry Accounts , 1999
157.
Density functional theory study of indirect nuclear spin-spin coupling constants with spin-orbit corrections
Oprea C.I., Rinkevicius Z., Vahtras O., Ågren H., Ruud K.
Journal of Chemical Physics , 2005
160.
Relativistic effects in the intermolecular interaction-induced nuclear magnetic resonance parameters of xenon dimer
Hanni M., Lantto P., Iliaš M., Jensen H.J., Vaara J.
Journal of Chemical Physics , 2007
164.
Simulations of 129Xe NMR chemical shift of atomic xenon dissolved in liquid benzene
Standara S., Kulhánek P., Marek R., Horníček J., Bouř P., Straka M.
Theoretical Chemistry Accounts , 2011
165.
Rovibrational effects on NMR shieldings in a heavy-element system: XeF2
Lantto P., Kangasvieri S., Vaara J.
Journal of Chemical Physics , 2012
166.
Exploring new 129Xe chemical shift ranges in HXeY compounds: hydrogen more relativistic than xenon
Lantto P., Standara S., Riedel S., Vaara J., Straka M.
Physical Chemistry Chemical Physics , 2012
167.
Clathrate Structure Determination by Combining Crystal Structure Prediction with Computational and Experimental129Xe NMR Spectroscopy
Selent M., Nyman J., Roukala J., Ilczyszyn M., Oilunkaniemi R., Bygrave P.J., Laitinen R., Jokisaari J., Day G.M., Lantto P.
Chemistry - A European Journal , 2017
169.
NMR Shielding Calculations across the Periodic Table:  Diamagnetic Uranium Compounds. 1. Methods and Issues
171.
A density functional study of nuclear magnetic resonance spin–spin coupling constants in transition-metal systems
Khandogin J., Ziegler T.
Spectrochimica Acta - Part A: Molecular and Biomolecular Spectroscopy , 1999
172.
Theoretical Modeling of 99Tc NMR Chemical Shifts
Hall G.B., Andersen A., Washton N.M., Chatterjee S., Levitskaia T.G.
Inorganic Chemistry , 2016
173.
rcr_90_9_1166_bib173
Rusakova
2021