Standard

Gas phase complexes MX 3·4,4′Bpy·M′X 3 (M,M′ = Al, Ga; X = Cl, Br) : Experiment and theory. / Berezovskaya, Ekaterina A.; Timoshkin, Alexey Y.; Sevastianova, Tatiana N.; Misharev, Alexander D.; Suvorov, Andrew V.; Schaefer, Henry F.

в: Journal of Physical Chemistry B, Том 108, № 28, 15.07.2004, стр. 9561-9563.

Результаты исследований: Научные публикации в периодических изданияхстатьяРецензирование

Harvard

Berezovskaya, EA, Timoshkin, AY, Sevastianova, TN, Misharev, AD, Suvorov, AV & Schaefer, HF 2004, 'Gas phase complexes MX 3·4,4′Bpy·M′X 3 (M,M′ = Al, Ga; X = Cl, Br): Experiment and theory', Journal of Physical Chemistry B, Том. 108, № 28, стр. 9561-9563.

APA

Berezovskaya, E. A., Timoshkin, A. Y., Sevastianova, T. N., Misharev, A. D., Suvorov, A. V., & Schaefer, H. F. (2004). Gas phase complexes MX 3·4,4′Bpy·M′X 3 (M,M′ = Al, Ga; X = Cl, Br): Experiment and theory. Journal of Physical Chemistry B, 108(28), 9561-9563.

Vancouver

Berezovskaya EA, Timoshkin AY, Sevastianova TN, Misharev AD, Suvorov AV, Schaefer HF. Gas phase complexes MX 3·4,4′Bpy·M′X 3 (M,M′ = Al, Ga; X = Cl, Br): Experiment and theory. Journal of Physical Chemistry B. 2004 Июль 15;108(28):9561-9563.

Author

Berezovskaya, Ekaterina A. ; Timoshkin, Alexey Y. ; Sevastianova, Tatiana N. ; Misharev, Alexander D. ; Suvorov, Andrew V. ; Schaefer, Henry F. / Gas phase complexes MX 3·4,4′Bpy·M′X 3 (M,M′ = Al, Ga; X = Cl, Br) : Experiment and theory. в: Journal of Physical Chemistry B. 2004 ; Том 108, № 28. стр. 9561-9563.

BibTeX

@article{58e2ff341a7c4c5c9f0c5885eb5f6763,
title = "Gas phase complexes MX 3·4,4′Bpy·M′X 3 (M,M′ = Al, Ga; X = Cl, Br): Experiment and theory",
abstract = "Donor-acceptor (DA) complexes MX 3·LL·M′X 3 (M, M′ = Al, Ga; X = Cl, Br; LL = 4,4′-bipyridyl) have been theoretically investigated at the B3LYP/pVDZ level of theory. Addition of the first molecule of MX 3 to 4,4′-bipyridyl has a similar exothermicity compared to complexes with the monodentate donor pyridine. Addition of the second molecule of MX 3 is significantly (by about 15 kJ mol -1) less exothermic. Nevertheless all 2:1 complexes (including heteroacceptor) are predicted to be stable in the vapor phase up to 660, 760, 830 and 920 K for GaBr 3, GaCl 3, AlBr 3, and AlCl 3, respectively. Four homoacceptor MX 3·4,4′bpy·MX 3 complexes have been synthesized for the first time, and their existence in the vapor phase has been proven by mass spectrometry. The theoretically predicted order of the complex stability AlCl 3 > AlBr 3 > GaCl 3 > GaBr 3 correlates well with the experimental observations of M 2X 5bpy + ion abundances in the mass spectra. The results obtained show for the first time that the synthesis of the gas-phase stable heteroacceptor complexes is feasible, which opens the prospect for their future use as single-source precursors to the stoichiometry-controlled synthesis of 13-15 alloys.",
author = "Berezovskaya, {Ekaterina A.} and Timoshkin, {Alexey Y.} and Sevastianova, {Tatiana N.} and Misharev, {Alexander D.} and Suvorov, {Andrew V.} and Schaefer, {Henry F.}",
year = "2004",
month = jul,
day = "15",
language = "English",
volume = "108",
pages = "9561--9563",
journal = "Journal of Physical Chemistry B",
issn = "1520-6106",
publisher = "American Chemical Society",
number = "28",

}

RIS

TY - JOUR

T1 - Gas phase complexes MX 3·4,4′Bpy·M′X 3 (M,M′ = Al, Ga; X = Cl, Br)

T2 - Experiment and theory

AU - Berezovskaya, Ekaterina A.

AU - Timoshkin, Alexey Y.

AU - Sevastianova, Tatiana N.

AU - Misharev, Alexander D.

AU - Suvorov, Andrew V.

AU - Schaefer, Henry F.

PY - 2004/7/15

Y1 - 2004/7/15

N2 - Donor-acceptor (DA) complexes MX 3·LL·M′X 3 (M, M′ = Al, Ga; X = Cl, Br; LL = 4,4′-bipyridyl) have been theoretically investigated at the B3LYP/pVDZ level of theory. Addition of the first molecule of MX 3 to 4,4′-bipyridyl has a similar exothermicity compared to complexes with the monodentate donor pyridine. Addition of the second molecule of MX 3 is significantly (by about 15 kJ mol -1) less exothermic. Nevertheless all 2:1 complexes (including heteroacceptor) are predicted to be stable in the vapor phase up to 660, 760, 830 and 920 K for GaBr 3, GaCl 3, AlBr 3, and AlCl 3, respectively. Four homoacceptor MX 3·4,4′bpy·MX 3 complexes have been synthesized for the first time, and their existence in the vapor phase has been proven by mass spectrometry. The theoretically predicted order of the complex stability AlCl 3 > AlBr 3 > GaCl 3 > GaBr 3 correlates well with the experimental observations of M 2X 5bpy + ion abundances in the mass spectra. The results obtained show for the first time that the synthesis of the gas-phase stable heteroacceptor complexes is feasible, which opens the prospect for their future use as single-source precursors to the stoichiometry-controlled synthesis of 13-15 alloys.

AB - Donor-acceptor (DA) complexes MX 3·LL·M′X 3 (M, M′ = Al, Ga; X = Cl, Br; LL = 4,4′-bipyridyl) have been theoretically investigated at the B3LYP/pVDZ level of theory. Addition of the first molecule of MX 3 to 4,4′-bipyridyl has a similar exothermicity compared to complexes with the monodentate donor pyridine. Addition of the second molecule of MX 3 is significantly (by about 15 kJ mol -1) less exothermic. Nevertheless all 2:1 complexes (including heteroacceptor) are predicted to be stable in the vapor phase up to 660, 760, 830 and 920 K for GaBr 3, GaCl 3, AlBr 3, and AlCl 3, respectively. Four homoacceptor MX 3·4,4′bpy·MX 3 complexes have been synthesized for the first time, and their existence in the vapor phase has been proven by mass spectrometry. The theoretically predicted order of the complex stability AlCl 3 > AlBr 3 > GaCl 3 > GaBr 3 correlates well with the experimental observations of M 2X 5bpy + ion abundances in the mass spectra. The results obtained show for the first time that the synthesis of the gas-phase stable heteroacceptor complexes is feasible, which opens the prospect for their future use as single-source precursors to the stoichiometry-controlled synthesis of 13-15 alloys.

UR - http://www.scopus.com/inward/record.url?scp=3442892369&partnerID=8YFLogxK

M3 - Article

AN - SCOPUS:3442892369

VL - 108

SP - 9561

EP - 9563

JO - Journal of Physical Chemistry B

JF - Journal of Physical Chemistry B

SN - 1520-6106

IS - 28

ER -

ID: 17373071