Author Correction Issued for Rh3+ Hydroformylation Study in Nature
Researchers update molecular structure data in the original study on regioselective hydroformylation catalysis.
1Correction to Published Research
The original article published on October 14, 2026, in Nature regarding Rh3+ stabilized in KRh@MFI has received a formal author correction. This update addresses specific inaccuracies found within the supplementary data. The correction ensures the scientific integrity of the findings presented by the research team at the Instituto de Tecnología Química.
2Molecular Structure Data Error
The primary issue identified in the original publication involved Extended Data Figure 1. Specifically, the molecular structures representing linear and branched aldehydes were found to be incorrect. These diagrams failed to accurately reflect the chemical composition relative to the initial olefins structure, necessitating a revision of both HTML and PDF versions.
3Technical Correction Implementation
To rectify the discrepancy, the authors updated the molecular structures to include an additional carbon atom. This adjustment aligns the visual data with the chemical reality of the olefins structure used in the hydroformylation process. The correction is now reflected in the official record to prevent further misinterpretation of the study.
4Institutional Research Collaboration
The research was conducted through a collaboration involving the Instituto de Tecnología Química, the ALBA Synchrotron Radiation Facility, and the University of Cádiz. These institutions provided the necessary infrastructure for the study of Rh3+ stabilization. The correction involves authors including Minjie Zhao, Reisel Millán, Patricia Concepción, and Avelino Corma.
5Significance of Hydroformylation Research
Hydroformylation is a critical industrial process for converting olefins into aldehydes. The study focuses on using KRh@MFI catalysts to achieve high regioselectivity, which is essential for efficient chemical synthesis. By stabilizing Rh3+ ions, the researchers aim to improve the precision of these catalytic reactions, impacting broader chemical manufacturing and material science applications.
6Data Integrity in Catalysis
Maintaining accurate molecular representations is vital in catalysis research, where small structural differences dictate reaction outcomes. The correction highlights the rigorous peer-review and post-publication verification processes inherent in high-impact scientific journals. Researchers must ensure that all supplementary figures precisely match the experimental data to support the validity of their conclusions.
7Accessing the Corrected Version
The corrected article is available via the original DOI link provided by Nature. Readers who accessed the initial version are encouraged to consult the updated HTML and PDF formats to ensure they are using the accurate data. The Springer Nature SharedIt initiative facilitates access to this corrected scientific content for the community.
8Scientific Transparency Standards
This correction serves as a standard procedure in academic publishing to maintain transparency and accuracy. By addressing the carbon atom discrepancy promptly, the authors uphold the reliability of their work on regioselective hydroformylation. Such updates are necessary components of the scientific method, ensuring that future research builds upon verified and precise data.
Original article: Nature — Author Correction Issued for Rh3+ Hydroformylation Study in Nature