DENSE SENSE : A novel approach utilizing an electron density augmented machine learningparadigm to understand a complex odour landscape

Olfaction is a complex process which involves interaction of multiple odour receptors in nasal epithelium to produce the sensation of smell for particular odorant molecules. Elucidating structure-activity-relationships for odorants and their receptors remains difficult since crystallization of the odour receptors extremely difficult. Therefore, ligand-based approaches that leverage machine learning remain the state of the art for predicting odorant properties for molecules, such as the graph neural network approach used by. In this paper we explore how information from Quantum Mechanics (QM) could synergistically improve the results obtained with the graph neural network. Our findings underscore the possibility of this methodology in predicting odour perception directly from QM data, offering a novel approach in the Machine learning space to understand olfaction.

Publication Details

Journal
Figshare
Published
2025-09-29
DOI
https://doi.org/10.6084/m9.figshare.30237730
Primary Topic
Diverse Scientific and Economic Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

DENSE SENSE : A novel approach utilizing an electron density augmented machine learningparadigm to understand a complex odour landscape

Figshare
Diverse Scientific and Economic Studies
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DENSE SENSE : A novel approach utilizing an electron density augmented machine learningparadigm to understand a complex odour landscape

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Abstract

Olfaction is a complex process which involves interaction of multiple odour receptors in nasal epithelium to produce the sensation of smell for particular odorant molecules. Elucidating structure-activity-relationships for odorants and their receptors remains difficult since crystallization of the odour receptors extremely difficult. Therefore, ligand-based approaches that leverage machine learning remain the state of the art for predicting odorant properties for molecules, such as the graph neural network approach used by. In this paper we explore how information from Quantum Mechanics (QM) could synergistically improve the results obtained with the graph neural network. Our findings underscore the possibility of this methodology in predicting odour perception directly from QM data, offering a novel approach in the Machine learning space to understand olfaction.

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Openalex Percentile: Top 33%
Diverse Scientific and Economic Studies
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