Deep Learning for Molecular Thermodynamics

The methods used in chemical engineering are strongly reliant on having a solid grasp of the thermodynamic features of complex systems. It is difficult to define the behavior of ions and molecules in complex systems and to make reliable predictions about the thermodynamic features of complex systems...

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Main Authors: Hassaan Malik, Muhammad Umar Chaudhry, Michal Jasinski
Format: Article
Language:English
Published: MDPI AG 2022-12-01
Series:Energies
Subjects:
Online Access:https://www.mdpi.com/1996-1073/15/24/9344
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author Hassaan Malik
Muhammad Umar Chaudhry
Michal Jasinski
author_facet Hassaan Malik
Muhammad Umar Chaudhry
Michal Jasinski
author_sort Hassaan Malik
collection DOAJ
description The methods used in chemical engineering are strongly reliant on having a solid grasp of the thermodynamic features of complex systems. It is difficult to define the behavior of ions and molecules in complex systems and to make reliable predictions about the thermodynamic features of complex systems across a wide range. Deep learning (DL), which can provide explanations for intricate interactions that are beyond the scope of traditional mathematical functions, would appear to be an effective solution to this problem. In this brief Perspective, we provide an overview of DL and review several of its possible applications within the realm of chemical engineering. DL approaches to anticipate the molecular thermodynamic characteristics of a broad range of systems based on the data that are already available are also described, with numerous cases serving as illustrations.
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spelling doaj.art-99e4c5acbbae4cfe9c11b70784338c682023-11-24T14:35:09ZengMDPI AGEnergies1996-10732022-12-011524934410.3390/en15249344Deep Learning for Molecular ThermodynamicsHassaan Malik0Muhammad Umar Chaudhry1Michal Jasinski2Department of Computer Science, University of Management and Technology, Lahore 54000, PakistanDepartment of Computer Science, MNS-University of Agriculture, Multan 60000, PakistanDepartment of Electrical Engineering Fundamentals, Faculty of Electrical Engineering, Wroclaw University of Science and Technology, 50-370 Wroclaw, PolandThe methods used in chemical engineering are strongly reliant on having a solid grasp of the thermodynamic features of complex systems. It is difficult to define the behavior of ions and molecules in complex systems and to make reliable predictions about the thermodynamic features of complex systems across a wide range. Deep learning (DL), which can provide explanations for intricate interactions that are beyond the scope of traditional mathematical functions, would appear to be an effective solution to this problem. In this brief Perspective, we provide an overview of DL and review several of its possible applications within the realm of chemical engineering. DL approaches to anticipate the molecular thermodynamic characteristics of a broad range of systems based on the data that are already available are also described, with numerous cases serving as illustrations.https://www.mdpi.com/1996-1073/15/24/9344deep learningmolecular thermodynamicsthermodynamic propertiesartificial intelligenceforecastingthermodynamics
spellingShingle Hassaan Malik
Muhammad Umar Chaudhry
Michal Jasinski
Deep Learning for Molecular Thermodynamics
Energies
deep learning
molecular thermodynamics
thermodynamic properties
artificial intelligence
forecasting
thermodynamics
title Deep Learning for Molecular Thermodynamics
title_full Deep Learning for Molecular Thermodynamics
title_fullStr Deep Learning for Molecular Thermodynamics
title_full_unstemmed Deep Learning for Molecular Thermodynamics
title_short Deep Learning for Molecular Thermodynamics
title_sort deep learning for molecular thermodynamics
topic deep learning
molecular thermodynamics
thermodynamic properties
artificial intelligence
forecasting
thermodynamics
url https://www.mdpi.com/1996-1073/15/24/9344
work_keys_str_mv AT hassaanmalik deeplearningformolecularthermodynamics
AT muhammadumarchaudhry deeplearningformolecularthermodynamics
AT michaljasinski deeplearningformolecularthermodynamics