Visible-Light-Promoted Iridium(III)-Catalyzed Acceptorless Dehydrogenation of N‑Heterocycles at Room Temperature

An effective visible-light-promoted iridium­(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the photocatalytic system playing a dual task, harvesting visible-light and facilitating C–H cleavage and H2 formation at room temperature and withou...

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Published inACS catalysis Vol. 12; no. 10; pp. 6238 - 6245
Main Authors Mejuto, Carmen, Ibáñez-Ibáñez, Laura, Guisado-Barrios, Gregorio, Mata, Jose A.
Format Journal Article
LanguageEnglish
Published United States American Chemical Society 20.05.2022
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Abstract An effective visible-light-promoted iridium­(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the photocatalytic system playing a dual task, harvesting visible-light and facilitating C–H cleavage and H2 formation at room temperature and without additives. The presence of a chelating C–N ligand combining a mesoionic carbene ligand along with an amido functionality in the IrIII complex is essential to attain the photocatalytic transformation. Furthermore, the IrIII complex is also an efficient catalyst for the thermal reverse process under mild conditions, positioning itself as a proficient candidate for liquid organic hydrogen carrier technologies (LOHCs). Mechanistic studies support a light-induced formation of H2 from the Ir–H intermediate as the operating mode of the iridium complex.
AbstractList An effective visible-light-promoted iridium(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the photocatalytic system playing a dual task, harvesting visible-light and facilitating C–H cleavage and H 2 formation at room temperature and without additives. The presence of a chelating C–N ligand combining a mesoionic carbene ligand along with an amido functionality in the Ir III complex is essential to attain the photocatalytic transformation. Furthermore, the Ir III complex is also an efficient catalyst for the thermal reverse process under mild conditions, positioning itself as a proficient candidate for liquid organic hydrogen carrier technologies (LOHCs). Mechanistic studies support a light-induced formation of H 2 from the Ir–H intermediate as the operating mode of the iridium complex.
An effective visible-light-promoted iridium(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the photocatalytic system playing a dual task, harvesting visible-light and facilitating C-H cleavage and H2 formation at room temperature and without additives. The presence of a chelating C-N ligand combining a mesoionic carbene ligand along with an amido functionality in the IrIII complex is essential to attain the photocatalytic transformation. Furthermore, the IrIII complex is also an efficient catalyst for the thermal reverse process under mild conditions, positioning itself as a proficient candidate for liquid organic hydrogen carrier technologies (LOHCs). Mechanistic studies support a light-induced formation of H2 from the Ir-H intermediate as the operating mode of the iridium complex.An effective visible-light-promoted iridium(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the photocatalytic system playing a dual task, harvesting visible-light and facilitating C-H cleavage and H2 formation at room temperature and without additives. The presence of a chelating C-N ligand combining a mesoionic carbene ligand along with an amido functionality in the IrIII complex is essential to attain the photocatalytic transformation. Furthermore, the IrIII complex is also an efficient catalyst for the thermal reverse process under mild conditions, positioning itself as a proficient candidate for liquid organic hydrogen carrier technologies (LOHCs). Mechanistic studies support a light-induced formation of H2 from the Ir-H intermediate as the operating mode of the iridium complex.
An effective visible-light-promoted iridium(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the photocatalytic system playing a dual task, harvesting visible-light and facilitating C-H cleavage and H formation at room temperature and without additives. The presence of a chelating C-N ligand combining a mesoionic carbene ligand along with an amido functionality in the Ir complex is essential to attain the photocatalytic transformation. Furthermore, the Ir complex is also an efficient catalyst for the thermal reverse process under mild conditions, positioning itself as a proficient candidate for liquid organic hydrogen carrier technologies (LOHCs). Mechanistic studies support a light-induced formation of H from the Ir-H intermediate as the operating mode of the iridium complex.
An effective visible-light-promoted iridium­(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the photocatalytic system playing a dual task, harvesting visible-light and facilitating C–H cleavage and H2 formation at room temperature and without additives. The presence of a chelating C–N ligand combining a mesoionic carbene ligand along with an amido functionality in the IrIII complex is essential to attain the photocatalytic transformation. Furthermore, the IrIII complex is also an efficient catalyst for the thermal reverse process under mild conditions, positioning itself as a proficient candidate for liquid organic hydrogen carrier technologies (LOHCs). Mechanistic studies support a light-induced formation of H2 from the Ir–H intermediate as the operating mode of the iridium complex.
Author Mata, Jose A.
Ibáñez-Ibáñez, Laura
Guisado-Barrios, Gregorio
Mejuto, Carmen
AuthorAffiliation CSIC-Universidad de Zaragoza
Institute of Advanced Materials (INAM), Centro de Innovación en Química Avanzada (ORFEO-CINQA)
Departamento de Química Inorgánica. Instituto de Síntesis Química y Catálisis Homogénea (ISQCH)
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N-heterocycles
hydrogen storage
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Snippet An effective visible-light-promoted iridium­(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the...
An effective visible-light-promoted iridium(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the...
An effective visible-light-promoted iridium(III)-catalyzed hydrogen production from N-heterocycles is described. A single iridium complex constitutes the...
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Title Visible-Light-Promoted Iridium(III)-Catalyzed Acceptorless Dehydrogenation of N‑Heterocycles at Room Temperature
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https://www.ncbi.nlm.nih.gov/pubmed/35633898
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