Computational Infrastructure for Automated Force Field Development and Optimization
Computational Infrastructure for Automated Force Field Development and Optimization
批准号:
10699200
负责人:
Madushanka Manathunga
金额:
$27.54万
依托单位:
依托单位国家:
美国
项目类别:
财政年份:
2023
资助国家:
美国
项目状态:
已结题
起止时间:
2023-09-30 至 2024-03-30
关键词:
AddressAdoptionBindingBinding ProteinsBiochemicalBiotechnologyClinical TrialsCodeCollaborationsCommunitiesComplexComputer softwareComputersComputing MethodologiesDataData SetDatabasesDevelopmentDiseaseEngineeringEnsureFeedbackFree EnergyGenerationsGoalsIndustrializationInfrastructureIntuitionLettersLigandsLiteratureMachine LearningMarketingMeasuresMethodologyMethodsModelingNamesOnline SystemsPerformancePharmaceutical PreparationsPharmacologic SubstancePhasePlayPositioning AttributeProcessProteinsPublicationsPublishingReportingResearchRoleRunningScanningScientistSeriesSideSmall Business Innovation Research GrantSoftware ToolsSpecificityStructureSurveysSystemTechnologyTestingThermodynamicsTrainingValidationWorkcloud basedcomputer infrastructurecomputer programcostdrug candidatedrug developmentdrug discoverydrug-like compoundexperimental studyflexibilityimprovedin silicointerestintermolecular interactionlead optimizationmechanical forcemolecular dynamicsmolecular mechanicsnovelnovel therapeuticsphase 2 studyprospectivesimulationtooluser-friendly
中文摘要
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英文摘要
Project Abstract
Our overarching goal is to provide reliable and efficient tools that can be used in structure
based drug discovery (SBDD). One crucial component of SBDD is to predict the structure of a
drug molecule that binds to a protein involved in a certain disease. This is usually achieved using
computer tools and the process consists of two steps, namely hit identification and lead
optimization. The latter step requires high accuracy and is presently achieved by computing
relative binding free energies (RBFE) using alchemical methods and molecular mechanics (MM)
forcefields. Unfortunately, due to deficiencies in MM forcefields, predicted drug candidates using
the SBDD process are sometimes unreliable, which is only realized at the later stages of the drug
discovery process involving experimental studies or even clinical trials. To address this issue, we
will create a novel, flexible and user-friendly computational infrastructure named Automated Force
Field Developer and Optimizer (AFFDO) that will allow scientists to quickly generate high-quality
training datasets through high-throughput ab initio calculations and transform them into fast and
accurate models which can then be used for RBFE calculations. We will engineer a commercial
quality code and deploy it on an existing web-based, user-friendly, drug development platform
that is widely popular among the industrial community (OpenEye’s Orion platform).
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