Active Sites on Nickel‐Promoted Transition‐Metal Sulfides That Catalyze Hydrogenation of Aromatic Compounds
Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the concentration of sulfhydryl (SH) groups at the slab edge and the metal atom attached to it. Sulfhydryl groups vicinal to edge‐incorporated Ni hydrogenate with mu...
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Published in | Angewandte Chemie International Edition Vol. 57; no. 44; pp. 14555 - 14559 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
Published |
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26.10.2018
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Edition | International ed. in English |
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Abstract | Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the concentration of sulfhydryl (SH) groups at the slab edge and the metal atom attached to it. Sulfhydryl groups vicinal to edge‐incorporated Ni hydrogenate with much higher rates than SH close to Mo and W. Each subset of SH groups, however, exhibits nearly identical intrinsic activity and selectivity, independent of the sulfide composition. The higher activity of Ni‐WS2 compared to Ni‐MoS2 stems from a higher concentration of SH groups on the former sulfide associated with a higher tendency of its surface vacancies to react with H2.
Distinct active sites on MoS2 and WS2 consisting of accessible Mo or W cations and SH groups at the slab edge have been identified. Addition of Ni on both sulfides generates a Ni‐(SH)x site that is significantly more active than the sites associated with Mo or W and has a distinct regioselectivity for H‐addition. For all sites the ratio between the metal cation and the SH groups is constant. |
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AbstractList | Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the concentration of sulfhydryl (SH) groups at the slab edge and the metal atom attached to it. Sulfhydryl groups vicinal to edge‐incorporated Ni hydrogenate with much higher rates than SH close to Mo and W. Each subset of SH groups, however, exhibits nearly identical intrinsic activity and selectivity, independent of the sulfide composition. The higher activity of Ni‐WS2 compared to Ni‐MoS2 stems from a higher concentration of SH groups on the former sulfide associated with a higher tendency of its surface vacancies to react with H2.
Distinct active sites on MoS2 and WS2 consisting of accessible Mo or W cations and SH groups at the slab edge have been identified. Addition of Ni on both sulfides generates a Ni‐(SH)x site that is significantly more active than the sites associated with Mo or W and has a distinct regioselectivity for H‐addition. For all sites the ratio between the metal cation and the SH groups is constant. Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the concentration of sulfhydryl (SH) groups at the slab edge and the metal atom attached to it. Sulfhydryl groups vicinal to edge-incorporated Ni hydrogenate with much higher rates than SH close to Mo and W. Each subset of SH groups, however, exhibits nearly identical intrinsic activity and selectivity, independent of the sulfide composition. The higher activity of Ni-WS2 compared to Ni-MoS2 stems from a higher concentration of SH groups on the former sulfide associated with a higher tendency of its surface vacancies to react with H2 . Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the concentration of sulfhydryl (SH) groups at the slab edge and the metal atom attached to it. Sulfhydryl groups vicinal to edge-incorporated Ni hydrogenate with much higher rates than SH close to Mo and W. Each subset of SH groups, however, exhibits nearly identical intrinsic activity and selectivity, independent of the sulfide composition. The higher activity of Ni-WS compared to Ni-MoS stems from a higher concentration of SH groups on the former sulfide associated with a higher tendency of its surface vacancies to react with H . Abstract Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the concentration of sulfhydryl (SH) groups at the slab edge and the metal atom attached to it. Sulfhydryl groups vicinal to edge‐incorporated Ni hydrogenate with much higher rates than SH close to Mo and W. Each subset of SH groups, however, exhibits nearly identical intrinsic activity and selectivity, independent of the sulfide composition. The higher activity of Ni‐WS 2 compared to Ni‐MoS 2 stems from a higher concentration of SH groups on the former sulfide associated with a higher tendency of its surface vacancies to react with H 2 . |
Author | Gutiérrez, Oliver Y. Schachtl, Eva Shi, Hui Luo, Wanqiu Lercher, Johannes A. |
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Keywords | active sites nickel aromatic compounds hydrogenation transition-metal sulfides |
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Snippet | Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the concentration of... Abstract Hydrogenation on Mo and W sulfides occurs at the edges of the sulfide slabs. The rate of hydrogen addition is directly proportional to the... |
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SubjectTerms | active sites Aromatic compounds Hydrogen storage Hydrogenation Metal sulfides Metals Molybdenum disulfide Nickel Slabs Sulfhydryl groups Sulfide Sulfides transition-metal sulfides Tungsten disulfide |
Title | Active Sites on Nickel‐Promoted Transition‐Metal Sulfides That Catalyze Hydrogenation of Aromatic Compounds |
URI | https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fanie.201808428 https://www.ncbi.nlm.nih.gov/pubmed/30182419 https://www.proquest.com/docview/2124060027 https://search.proquest.com/docview/2099889472 |
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