Mechanistic considerations on homogeneously catalyzed formic acid dehydrogenation
M Iglesias, LA Oro - European Journal of Inorganic Chemistry, 2018 - Wiley Online Library
European Journal of Inorganic Chemistry, 2018•Wiley Online Library
The dehydrogenation of formic acid permits the production of hydrogen virtually free of
carbon monoxide, which is a key requisite for its use in fuel cells. Moreover, HCOOH is a
suitable hydrogen carrier, better in several crucial characteristics than other liquid organic
hydrogen carriers, namely, low toxicity, high hydrogen content and recyclability (via CO2
hydrogenation). The most successfully employed catalysts are those based on Ir, Ru, Rh,
and Fe metal centers. The catalytic cycles through which homogeneous metal complexes …
carbon monoxide, which is a key requisite for its use in fuel cells. Moreover, HCOOH is a
suitable hydrogen carrier, better in several crucial characteristics than other liquid organic
hydrogen carriers, namely, low toxicity, high hydrogen content and recyclability (via CO2
hydrogenation). The most successfully employed catalysts are those based on Ir, Ru, Rh,
and Fe metal centers. The catalytic cycles through which homogeneous metal complexes …
The dehydrogenation of formic acid permits the production of hydrogen virtually free of carbon monoxide, which is a key requisite for its use in fuel cells. Moreover, HCOOH is a suitable hydrogen carrier, better in several crucial characteristics than other liquid organic hydrogen carriers, namely, low toxicity, high hydrogen content and recyclability (via CO2 hydrogenation). The most successfully employed catalysts are those based on Ir, Ru, Rh, and Fe metal centers. The catalytic cycles through which homogeneous metal complexes operate show a wide mechanistic diversity. The nature of catalytic cycle depends mainly on the nuclearity of the active species, the type of CO2 formation step (β‐hydride elimination, hydride abstraction, or outer‐sphere mechanism), and whether the rate‐limiting step relates to CO2 or H2 formation. Different outer‐sphere interactions have been proposed in the literature in order to explain the success of homogeneous catalyst, which seems to be common ground for most of the catalysts so far reported.
Wiley Online Library
以上显示的是最相近的搜索结果。 查看全部搜索结果