Combining Molecular Quantum Mechanical Modeling and Machine Learning for Accelerated Reaction Screening and Discovery
Nicholas Casetti, Javier Emilio Alfonso Ramos, Connor W. Coley, Thijs Stuyver
Abstract
Molecular quantum mechanical modeling, accelerated by machine learning, has opened the door to high-throughput screening campaigns of complex properties, such as the activation energies of chemical reactions and absorption/emission spectra of materials and molecules; in silico. Here, we present an overview of the main principles, concepts, and design considerations involved in such hybrid computational quantum chemistry/machine learning screening workflows, with a special emphasis on some recent examples of their successful application. We end with a brief outlook of further advances that will benefit the field.
Topics & Concepts
WorkflowMolecular machineComputer scienceQuantumThroughputField (mathematics)Quantum chemicalHigh-throughput screeningNanotechnologyQuantum machine learningIn silicoSystems engineeringArtificial intelligenceQuantum computerMoleculeChemistryMaterials sciencePhysicsEngineeringTelecommunicationsDatabaseMathematicsPure mathematicsWirelessQuantum mechanicsOrganic chemistryBiochemistryGeneMachine Learning in Materials ScienceComputational Drug Discovery MethodsMass Spectrometry Techniques and Applications