Molecular Foundation Models for Predicting Self-Assembly in Aqueous Mixtures

Pretrained foundation models offer new representations for molecular structures but have predominantly been applied to single-component property prediction. Here, we develop a concentration-weighted average of the latent representations of graph neural network and transformer-based molecular foundation models to predict the critical micelle concentrations of single surfactant, biphasic separation of binary mixtures, and liposome formation in 7-component amphiphile mixtures. Simple random forest and feed-forward neural network models trained with these representations are comparable to or exceed prior work using bespoke graph neural network methods, physicochemical features, and binary fingerprinting. High-throughput automated experiments validate the ability of our models to extrapolate to novel surfactant mixtures and to guide the iterative exploration of liposome design.

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Publication Details

Journal
Langmuir
Published
2026-03-04
DOI
https://doi.org/10.1021/acs.langmuir.5c06509
Primary Topic
Advanced Polymer Synthesis and Characterization
Type
article
Field-Weighted Citation Impact
0.00
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article

Molecular Foundation Models for Predicting Self-Assembly in Aqueous Mixtures

M. C. Ekosso, Sarah Maurer, Joshua Schrier, Hao Liu et al.
Langmuir
Advanced Polymer Synthesis and Characterization
article

Molecular Foundation Models for Predicting Self-Assembly in Aqueous Mixtures

M. C. Ekosso, Sarah Maurer, Joshua Schrier, Hao Liu, Avery Glagovich
article en

Abstract

Pretrained foundation models offer new representations for molecular structures but have predominantly been applied to single-component property prediction. Here, we develop a concentration-weighted average of the latent representations of graph neural network and transformer-based molecular foundation models to predict the critical micelle concentrations of single surfactant, biphasic separation of binary mixtures, and liposome formation in 7-component amphiphile mixtures. Simple random forest and feed-forward neural network models trained with these representations are comparable to or exceed prior work using bespoke graph neural network methods, physicochemical features, and binary fingerprinting. High-throughput automated experiments validate the ability of our models to extrapolate to novel surfactant mixtures and to guide the iterative exploration of liposome design.

LangmuirVol. 42(10)
Central Connecticut State University (US), Fordham University (US), The Bronx Defenders (US)
Life in Land
Openalex Percentile: Top 33%
Advanced Polymer Synthesis and Characterization
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