Chemical Engineering & Technology · 1999 · 22 citations · 0 references
Natural SciencesChemical EngineeringChemistryChemical KineticsMachine LearningReaction EngineeringChemical Kinetics ModelingChemical Reaction KineticsComputational ModelingKinetic ModelingNeural NetworksReaction DynamicsChemical Reaction MechanismsChemical Reaction NetworksHybrid Model-data ApproachesHybrid ModelingModel AdaptationReaction Kinetics Modeling
Data-driven methods, such as neural networks, offer an interesting alternative to conventional physical modeling of chemical kinetics. However, there are disadvantages, primarily high data requirements for model adaptation. A suitable combination of physical and data-driven methods leads to hybrid models that utilize the advantages of both approaches while avoiding their disadvantages. This paper explains the procedure of hybrid modeling of integral data by using examples from chemical kinetics and describes the benefits of hybrid models in comparison to the limiting cases of purely physical and purely data-driven models.