Deep Eutectic Solvents (DESs) emerged as promising alternatives to conventional solvents for their peculiar characteristics. Among these, melting temperature is a critical parameter that deeply influences their industrial applicability. It is possible to use machine learning (ML) models to predict the melting temperatures of DES mixtures based on their molecular features, to reduce time-consuming and costly experimental work. The approach involves training and testing a series of existing learning models, using the code developed by a separate research group, on an expanded dataset curated by a colleague. Moreover the possibility of modifying the molecular descriptors originally used as input for prediction will be explored. The impact of the changes implemented in the original code will be assessed using statistical metrics, which also allows to compare each model's performance. The results should provide valuable insight into the influence of feature selection and dataset size on prediction accuracy, and confirm the most effective model for melting temperature prediction.

Deep Eutectic Solvents (DESs) emerged as promising alternatives to conventional solvents for their peculiar characteristics. Among these, melting temperature is a critical parameter that deeply influences their industrial applicability. It is possible to use machine learning (ML) models to predict the melting temperatures of DES mixtures based on their molecular features, to reduce time-consuming and costly experimental work. The approach involves training and testing a series of existing learning models, using the code developed by a separate research group, on an expanded dataset curated by a colleague. Moreover the possibility of modifying the molecular descriptors originally used as input for prediction will be explored. The impact of the changes implemented in the original code will be assessed using statistical metrics, which also allows to compare each model's performance. The results should provide valuable insight into the influence of feature selection and dataset size on prediction accuracy, and confirm the most effective model for melting temperature prediction.

Machine Learning to Predict Melting Temperatures of Deep Eutectic Solvents from Molecular Descriptors

LIVIERO, LUNA
2024/2025

Abstract

Deep Eutectic Solvents (DESs) emerged as promising alternatives to conventional solvents for their peculiar characteristics. Among these, melting temperature is a critical parameter that deeply influences their industrial applicability. It is possible to use machine learning (ML) models to predict the melting temperatures of DES mixtures based on their molecular features, to reduce time-consuming and costly experimental work. The approach involves training and testing a series of existing learning models, using the code developed by a separate research group, on an expanded dataset curated by a colleague. Moreover the possibility of modifying the molecular descriptors originally used as input for prediction will be explored. The impact of the changes implemented in the original code will be assessed using statistical metrics, which also allows to compare each model's performance. The results should provide valuable insight into the influence of feature selection and dataset size on prediction accuracy, and confirm the most effective model for melting temperature prediction.
2024
Machine Learning to Predict Melting Temperatures of Deep Eutectic Solvents from Molecular Descriptors
Deep Eutectic Solvents (DESs) emerged as promising alternatives to conventional solvents for their peculiar characteristics. Among these, melting temperature is a critical parameter that deeply influences their industrial applicability. It is possible to use machine learning (ML) models to predict the melting temperatures of DES mixtures based on their molecular features, to reduce time-consuming and costly experimental work. The approach involves training and testing a series of existing learning models, using the code developed by a separate research group, on an expanded dataset curated by a colleague. Moreover the possibility of modifying the molecular descriptors originally used as input for prediction will be explored. The impact of the changes implemented in the original code will be assessed using statistical metrics, which also allows to compare each model's performance. The results should provide valuable insight into the influence of feature selection and dataset size on prediction accuracy, and confirm the most effective model for melting temperature prediction.
Machine Learning
DES
AI
File in questo prodotto:
File Dimensione Formato  
Liviero_Luna.pdf

accesso aperto

Dimensione 418.78 kB
Formato Adobe PDF
418.78 kB Adobe PDF Visualizza/Apri

The text of this website © Università degli studi di Padova. Full Text are published under a non-exclusive license. Metadata are under a CC0 License

Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.12608/92095