Stability of AgIII towards Halides in Organosilver(III) Complexes

The involvement of silver in two‐electron AgI/AgIII processes is currently emerging. However, the range of stability of the required and uncommon AgIII species is virtually unknown. Here, the stability of AgIII towards the whole set of halide ligands in the organosilver(III) complex frame [(CF3)3AgX...

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Veröffentlicht in:Chemistry : a European journal 2021-09, Vol.27 (50), p.12796-12806
Hauptverfasser: Joven‐Sancho, Daniel, Baya, Miguel, Falvello, Larry R., Martín, Antonio, Orduna, Jesús, Menjón, Babil
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container_issue 50
container_start_page 12796
container_title Chemistry : a European journal
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creator Joven‐Sancho, Daniel
Baya, Miguel
Falvello, Larry R.
Martín, Antonio
Orduna, Jesús
Menjón, Babil
description The involvement of silver in two‐electron AgI/AgIII processes is currently emerging. However, the range of stability of the required and uncommon AgIII species is virtually unknown. Here, the stability of AgIII towards the whole set of halide ligands in the organosilver(III) complex frame [(CF3)3AgX]− (X=F, Cl, Br, I, At) is theoretically analyzed. The results obtained depend on a single factor: the nature of X. Even the softest and least electronegative halides (I and At) are found to form reasonably stable AgIII−X bonds. Our estimates were confirmed by experiment. The whole series of nonradiative halide complexes [PPh4][(CF3)3AgX] (X=F, Cl, Br, I) has been experimentally prepared and all its constituents have been isolated in pure form. The pseudohalides [PPh4][(CF3)3AgCN] and [PPh4][(CF3)3Ag(N3)] have also been isolated, the latter being the first silver(III) azido complex. Except for the iodo compound, all the crystal and molecular structures have been established by single‐crystal X‐ray diffraction methods. The decomposition paths of the [(CF3)3AgX]− entities at the unimolecular level have been examined in the gas phase by multistage mass spectrometry (MSn). The experimental detection of the two series of mixed complexes [CF3AgX]− and [FAgX]− arising from the corresponding parent species [(CF3)3AgX]− demonstrate that the Ag−X bond is particularly robust. Our experimental observations are rationalized with the aid of theoretical methods. Smooth variation with the electronegativity of X is also observed in the thermolyses of bulk samples. The thermal stability in the solid state gradually decreases from X=F (145 °C, dec.) to X=I (78 °C, dec.) The experimentally established compatibility of AgIII with the heaviest halides is of particular relevance to silver‐mediated or silver‐catalyzed processes. Unexpectedly robust: We provide theoretical evidence and experimental proof of the unexpected stability of the AgIII−X bond with every halogen (X=F, Cl, Br and I) in the series of square‐planar organosilver(III) derivatives [PPh4][(CF3)3AgX]. Unimolecular decomposition paths were analyzed by combined theoretical and experimental methods, whereby the two series of linear complexes [CF3AgX]− and [FAgX]− were detected. The first silver(III) azide was also prepared, isolated and structurally characterized.
doi_str_mv 10.1002/chem.202101859
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However, the range of stability of the required and uncommon AgIII species is virtually unknown. Here, the stability of AgIII towards the whole set of halide ligands in the organosilver(III) complex frame [(CF3)3AgX]− (X=F, Cl, Br, I, At) is theoretically analyzed. The results obtained depend on a single factor: the nature of X. Even the softest and least electronegative halides (I and At) are found to form reasonably stable AgIII−X bonds. Our estimates were confirmed by experiment. The whole series of nonradiative halide complexes [PPh4][(CF3)3AgX] (X=F, Cl, Br, I) has been experimentally prepared and all its constituents have been isolated in pure form. The pseudohalides [PPh4][(CF3)3AgCN] and [PPh4][(CF3)3Ag(N3)] have also been isolated, the latter being the first silver(III) azido complex. Except for the iodo compound, all the crystal and molecular structures have been established by single‐crystal X‐ray diffraction methods. The decomposition paths of the [(CF3)3AgX]− entities at the unimolecular level have been examined in the gas phase by multistage mass spectrometry (MSn). The experimental detection of the two series of mixed complexes [CF3AgX]− and [FAgX]− arising from the corresponding parent species [(CF3)3AgX]− demonstrate that the Ag−X bond is particularly robust. Our experimental observations are rationalized with the aid of theoretical methods. Smooth variation with the electronegativity of X is also observed in the thermolyses of bulk samples. The thermal stability in the solid state gradually decreases from X=F (145 °C, dec.) to X=I (78 °C, dec.) The experimentally established compatibility of AgIII with the heaviest halides is of particular relevance to silver‐mediated or silver‐catalyzed processes. Unexpectedly robust: We provide theoretical evidence and experimental proof of the unexpected stability of the AgIII−X bond with every halogen (X=F, Cl, Br and I) in the series of square‐planar organosilver(III) derivatives [PPh4][(CF3)3AgX]. Unimolecular decomposition paths were analyzed by combined theoretical and experimental methods, whereby the two series of linear complexes [CF3AgX]− and [FAgX]− were detected. 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However, the range of stability of the required and uncommon AgIII species is virtually unknown. Here, the stability of AgIII towards the whole set of halide ligands in the organosilver(III) complex frame [(CF3)3AgX]− (X=F, Cl, Br, I, At) is theoretically analyzed. The results obtained depend on a single factor: the nature of X. Even the softest and least electronegative halides (I and At) are found to form reasonably stable AgIII−X bonds. Our estimates were confirmed by experiment. The whole series of nonradiative halide complexes [PPh4][(CF3)3AgX] (X=F, Cl, Br, I) has been experimentally prepared and all its constituents have been isolated in pure form. The pseudohalides [PPh4][(CF3)3AgCN] and [PPh4][(CF3)3Ag(N3)] have also been isolated, the latter being the first silver(III) azido complex. Except for the iodo compound, all the crystal and molecular structures have been established by single‐crystal X‐ray diffraction methods. The decomposition paths of the [(CF3)3AgX]− entities at the unimolecular level have been examined in the gas phase by multistage mass spectrometry (MSn). The experimental detection of the two series of mixed complexes [CF3AgX]− and [FAgX]− arising from the corresponding parent species [(CF3)3AgX]− demonstrate that the Ag−X bond is particularly robust. Our experimental observations are rationalized with the aid of theoretical methods. Smooth variation with the electronegativity of X is also observed in the thermolyses of bulk samples. The thermal stability in the solid state gradually decreases from X=F (145 °C, dec.) to X=I (78 °C, dec.) The experimentally established compatibility of AgIII with the heaviest halides is of particular relevance to silver‐mediated or silver‐catalyzed processes. Unexpectedly robust: We provide theoretical evidence and experimental proof of the unexpected stability of the AgIII−X bond with every halogen (X=F, Cl, Br and I) in the series of square‐planar organosilver(III) derivatives [PPh4][(CF3)3AgX]. Unimolecular decomposition paths were analyzed by combined theoretical and experimental methods, whereby the two series of linear complexes [CF3AgX]− and [FAgX]− were detected. 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However, the range of stability of the required and uncommon AgIII species is virtually unknown. Here, the stability of AgIII towards the whole set of halide ligands in the organosilver(III) complex frame [(CF3)3AgX]− (X=F, Cl, Br, I, At) is theoretically analyzed. The results obtained depend on a single factor: the nature of X. Even the softest and least electronegative halides (I and At) are found to form reasonably stable AgIII−X bonds. Our estimates were confirmed by experiment. The whole series of nonradiative halide complexes [PPh4][(CF3)3AgX] (X=F, Cl, Br, I) has been experimentally prepared and all its constituents have been isolated in pure form. The pseudohalides [PPh4][(CF3)3AgCN] and [PPh4][(CF3)3Ag(N3)] have also been isolated, the latter being the first silver(III) azido complex. Except for the iodo compound, all the crystal and molecular structures have been established by single‐crystal X‐ray diffraction methods. The decomposition paths of the [(CF3)3AgX]− entities at the unimolecular level have been examined in the gas phase by multistage mass spectrometry (MSn). The experimental detection of the two series of mixed complexes [CF3AgX]− and [FAgX]− arising from the corresponding parent species [(CF3)3AgX]− demonstrate that the Ag−X bond is particularly robust. Our experimental observations are rationalized with the aid of theoretical methods. Smooth variation with the electronegativity of X is also observed in the thermolyses of bulk samples. The thermal stability in the solid state gradually decreases from X=F (145 °C, dec.) to X=I (78 °C, dec.) The experimentally established compatibility of AgIII with the heaviest halides is of particular relevance to silver‐mediated or silver‐catalyzed processes. Unexpectedly robust: We provide theoretical evidence and experimental proof of the unexpected stability of the AgIII−X bond with every halogen (X=F, Cl, Br and I) in the series of square‐planar organosilver(III) derivatives [PPh4][(CF3)3AgX]. Unimolecular decomposition paths were analyzed by combined theoretical and experimental methods, whereby the two series of linear complexes [CF3AgX]− and [FAgX]− were detected. 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source Wiley Online Library Journals Frontfile Complete
subjects Chemistry
Crystal structure
Electronegativity
Halides
highest oxidation states
inverted ligand fields
Mass spectrometry
Mass spectroscopy
Molecular structure
organosilver
Silver
silver(III)
Thermal stability
unimolecular processes
Vapor phases
title Stability of AgIII towards Halides in Organosilver(III) Complexes
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