Surfactant Temperature-Dependent Critical Micelle Concentration Prediction with Uncertainty-Aware Graph Neural Network

The critical micelle concentration (CMC) is a fundamental physicochemical property of surfactants with significant implications across multiple industries. This paper presents an uncertainty-aware graph neural network (GNN) that integrates molecular structure and temperature to simultaneously predict CMC values and prediction uncertainties. Trained on a curated dataset of 2133 CMC values with temperature annotations, our GNN achieves comparatively similar performance on two external test sets from similar works. The model provides adequately calibrated uncertainty estimates that reliably quantify prediction confidence. This dual-output approach enables reliable CMC prediction with quantifiable confidence intervals, addressing a practical need for safety-critical applications where underestimation of uncertainty could have serious consequences.

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Journal
Chemistry
Published
2026-02-15
DOI
https://doi.org/10.3390/chemistry8020026
Primary Topic
Computational Drug Discovery Methods
Type
article
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article

Surfactant Temperature-Dependent Critical Micelle Concentration Prediction with Uncertainty-Aware Graph Neural Network

Timur Gimadiev, Э Р Сайфуллин, M. Sh. Adygamov, Nikita Yu. Serov
Chemistry
Computational Drug Discovery Methods
article

Surfactant Temperature-Dependent Critical Micelle Concentration Prediction with Uncertainty-Aware Graph Neural Network

Timur Gimadiev, Э Р Сайфуллин, M. Sh. Adygamov, Nikita Yu. Serov
article en

Abstract

The critical micelle concentration (CMC) is a fundamental physicochemical property of surfactants with significant implications across multiple industries. This paper presents an uncertainty-aware graph neural network (GNN) that integrates molecular structure and temperature to simultaneously predict CMC values and prediction uncertainties. Trained on a curated dataset of 2133 CMC values with temperature annotations, our GNN achieves comparatively similar performance on two external test sets from similar works. The model provides adequately calibrated uncertainty estimates that reliably quantify prediction confidence. This dual-output approach enables reliable CMC prediction with quantifiable confidence intervals, addressing a practical need for safety-critical applications where underestimation of uncertainty could have serious consequences.

ChemistryVol. 8(2)
Russian Academy of Sciences (RU), Kazan Federal University (RU), Kazan Scientific Center (RU)
Openalex Percentile: Top 52%
Computational Drug Discovery Methods
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Surfactant Temperature-Dependent Critical Micelle Concentration Prediction with Uncertainty-Aware Graph Neural Network — Timur Gimadiev, Э Р Сайфуллин, et al. · Chemistry (2026) | TGRS Research Map | TGRS