Anomaly Detection Algorithm for Searching Selective Catalyst
Differentiating Linear and Cyclic Alkanes in Oxidation
- 稼兴 刘,
- Pengkun Su,
- Bingling Dai,
- Da Zhou,
- Cheng Wang
稼兴 刘
Xiamen University Department of Artificial Intelligence
Author ProfilePengkun Su
Xiamen University State Laboratory for the Physical Chemistry of Solid Surface
Author ProfileBingling Dai
Xiamen University State Laboratory for the Physical Chemistry of Solid Surface
Author ProfileDa Zhou
Xiamen University National Institute for Data Science in Health and Medicine
Author ProfileCheng Wang
Xiamen University State Laboratory for the Physical Chemistry of Solid Surface
Corresponding Author:wangchengxmu@xmu.edu.cn
Author ProfileAbstract
Selective catalysis, particularly when differentiating substrates with
similar reactivities in mixture, is a significant challenge. In this
study, anomaly detection algorithms---tools traditionally used for
identifying outliers in data cleaning---are applied to catalyst
screening. We focus on developing catalytic methods to selectively
oxidize cyclic alkanes over linear alkanes in mixtures such as naphtha.
By inserting cyclohexane oxidation data one by one into a database of
n-hexane oxidization, we used several anomaly detection algorithms to
evaluate whether the inserted cyclohexane oxidation data could be
considered anomalous. Conditions identified as anomalies imply that they
are likely not suitable for n-hexane oxidization. However, these
anomalies come from conditions for cyclohexane oxidation. As a result,
they are promising conditions for selective oxidation of cyclohexane
while leaving n-hexane unaltered. These anomalies were thus further
investigated, leading to the discovery of a specific catalytic approach
that selectively oxidizes cyclohexane. This application of anomaly
detection offers a novel method to search for selective catalyst for
chemical reactions involving mixed substrates.08 Jan 2025Submitted to Chinese Journal of Chemistry 09 Jan 2025Submission Checks Completed
09 Jan 2025Assigned to Editor
09 Jan 2025Review(s) Completed, Editorial Evaluation Pending
14 Jan 2025Reviewer(s) Assigned