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May 6, 2026Energy Technology0 citations

Machine Learning‐Driven Design of Unfused Small Molecule Acceptors

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KKKhadijah MohammedSaleh KatubiNANorah AlomayrahMAM.S. Al‐Buriahi

Key Points

  • The aim is to enhance the design of organic photovoltaics using unfused small molecule acceptors through machine learning.
  • Utilized machine learning models to predict the efficiency of organic photovoltaics.
  • Compiled a large dataset of unfused-backbone small molecule acceptors.
  • Analyzed chemical similarity using clustering analysis and chemical fingerprints.
  • Studied synthetic feasibility of the identified small molecule acceptors.
  • Predictions showed a majority of unfused small molecule acceptors are easier to synthesize.
  • Clustering analysis revealed distinct patterns in chemical similarity among the acceptors.
  • Efficiency predictions indicated potential for commercialization of the OPV devices.

Abstract

The development of organic photovoltaics (OPVs) depends on the properties of small molecule acceptor (SMA). Since OPV devices can be commercialized, unfused‐backbone SMAs were developed because they are easier to synthesize than other types. Machine learning (ML) models are used to predict the efficiency of the OPV devices. Unfused‐backbone SMAs are compiled into a large dataset, and their efficiencies are predicted using pre‐trained ML models. The chemical similarity between these SMAs was analyzed using clustering analysis with the help of chemical fingerprints. Furthermore, the synthetic feasibility of these SMAs was studied. It was observed that majority of these SMAs are easier to synthesize.

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Cite This Study

Katubi et al. (2026) studied this question.

synapsesocial.com/papers/69fa980604f884e66b531c4bhttps://doi.org/10.1002/ente.70495
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