Design of Thermotropic Liquid Crystal Molecules With a Wide Temperature Range for the Liquid Crystal Phase Using Machine Learning

Thermotropic liquid crystals are functional materials whose phase structures change with temperature. They exhibit mesophases—intermediate states between solid and liquid. There is demand for materials that maintain a stable mesophase over a wide temperature range Δ T LC , enabling operation even under harsh conditions. Conventional liquid crystal development requires significant time and money from molecular design to physical property evaluation. This study designs liquid crystal molecules exhibiting wide Δ T LC in a specific mesophase. The proposed method enables efficient liquid crystal exploration by predicting Δ T LC for new materials using machine learning. First, it identifies the mesophase formed from the molecular structure. Next, it predicts the phase transition temperatures (melting point and clearing point) for that phase. Inputting molecules with unknown Δ T LC into these models enables the prediction of Δ T LC for any given mesophase and efficient exploration of liquid crystal molecules.

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Publication Details

Journal
Molecular Informatics
Published
2026-07-30
DOI
https://doi.org/10.1002/minf.70044
Primary Topic
Liquid Crystal Research Advancements
Type
article
Field-Weighted Citation Impact
0.00

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article

Design of Thermotropic Liquid Crystal Molecules With a Wide Temperature Range for the Liquid Crystal Phase Using Machine Learning

Hiromasa Kaneko, Naoki Masuyama
Molecular Informatics
Liquid Crystal Research Advancements
article

Design of Thermotropic Liquid Crystal Molecules With a Wide Temperature Range for the Liquid Crystal Phase Using Machine Learning

Hiromasa Kaneko, Naoki Masuyama
article en

Abstract

Thermotropic liquid crystals are functional materials whose phase structures change with temperature. They exhibit mesophases—intermediate states between solid and liquid. There is demand for materials that maintain a stable mesophase over a wide temperature range Δ T LC , enabling operation even under harsh conditions. Conventional liquid crystal development requires significant time and money from molecular design to physical property evaluation. This study designs liquid crystal molecules exhibiting wide Δ T LC in a specific mesophase. The proposed method enables efficient liquid crystal exploration by predicting Δ T LC for new materials using machine learning. First, it identifies the mesophase formed from the molecular structure. Next, it predicts the phase transition temperatures (melting point and clearing point) for that phase. Inputting molecules with unknown Δ T LC into these models enables the prediction of Δ T LC for any given mesophase and efficient exploration of liquid crystal molecules.

Molecular InformaticsVol. 45(8)
Meiji University (JP)
Japan Society for the Promotion of Science
Industry, innovation and infrastructure
Openalex Percentile: Top 23%
Liquid Crystal Research Advancements
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