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March 14, 2026Cell Reports Physical Science1 citationsOpen Access

Sub-nanometer Rh1+ oxide in zeolites catalyzes the hydroformylation reaction under counterbalancing cation control

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ASAlejandro Serrano-MaldonadoASAmravati S. SinghRMRamón Manzorro

Key Points

  • To investigate the impact of counterbalancing cations on the catalytic performance of zeolite-supported Rh catalysts in hydroformylation.
  • Analysis of catalytic activity and selectivity using sub-nanometer Rh oxide in zeolites under different cation conditions.
  • Experimental evaluation of zeolite structures, specifically faujasitic types, for different alkene reactants.
  • Comparison of ligand-free Rh zeolites in both hydroformylation and acid catalyzed reactions.
  • Identified significant effects of cation types on the catalytic activity and selectivity in hydroformylation reactions.
  • Provided a structure-activity relationship for the Rh-supported zeolites in catalytic processes.
  • Extended application possibilities for zeolite-based catalysts in one-pot reactions including acid catalyzed processes.

Abstract

Summary Rhodium (Rh)-supported zeolites are intensively studied as solid catalysts for the industrial hydroformylation reaction in order to replace the currently used soluble Rh catalysts. Here, we show that the counterbalancing cations of the zeolite, inherent to these aluminosilicates, significantly impact on the catalytic activity and selectivity of the hydroformylation reaction when sub-nanometer Rh1+-oxide species, generated inside the zeolite after incorporation and calcination of simple Rh species, are employed as catalytic sites. A Rh-supported faujasitic structure-activity relationship is thus provided for the hydroformylation reaction, perhaps extensible to other reactions. The ligand-free Rh zeolites can now be rationally chosen for one or another alkene reactant and also to perform one-pot hydroformylation/acid catalyzed reactions, thus opening new ways to design solid catalysts for these paramount reactions.

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Cite This Study

Serrano-Maldonado et al. (2026) studied this question.

synapsesocial.com/papers/69b4ba0818185d8a398026d8https://doi.org/10.1016/j.xcrp.2026.103161
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