Search results for " Interdisciplinary Applications"

showing 2 items of 2 documents

Quantifying the Potential Economic Benefits of Flexible Industrial Demand in the European Power System

2018

The envisaged decarbonization of the European power system introduces complex techno-economic challenges to its operation and development. Demand flexibility can significantly contribute in addressing these challenges and enable a cost-effective transition to the low-carbon future. Although extensive previous work has analyzed the impacts of residential and commercial demand flexibility, the respective potential of the industrial sector has not yet been thoroughly investigated despite its large size. This paper presents a novel, whole-system modeling framework to comprehensively quantify the potential economic benefits of flexible industrial demand (FID) for the European power system. This …

TechnologyElectrical & Electronic EngineeringComputer science020209 energyDistribution (economics)Information System02 engineering and technology09 EngineeringENERGY MANAGEMENT SCHEMEElectric power systemAutomation & Control SystemsEngineeringDemand flexibilityCARBON ELECTRICITY SYSTEMS10 Technology0202 electrical engineering electronic engineering information engineeringCapital costElectrical and Electronic EngineeringOperating costFlexibility (engineering)08 Information And Computing Sciencesindustrial demandScience & Technologyrenewable generationbusiness.industryFACILITIESComputer Science Applications1707 Computer Vision and Pattern RecognitionEnvironmental economicsInvestment (macroeconomics)Computer Science Applicationspower systemWork (electrical)Control and Systems EngineeringSecondary sector of the economyEngineering IndustrialComputer ScienceComputer Science Interdisciplinary ApplicationsSIDE MANAGEMENTbusinessoptimizationSTORAGEInformation SystemsIEEE Transactions on Industrial Informatics
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Multiscale modeling of polycrystalline materials: A boundary element approach to material degradation and fracture

2015

Abstract In this work, a two-scale approach to degradation and failure in polycrystalline materials is proposed. The formulation involves the engineering component level (macro-scale) and the material grain level (micro-scale). The macro-continuum is modeled using a three-dimensional boundary element formulation in which the presence of damage is formulated through an initial stress approach to account for the local softening in the neighborhood of points experiencing degradation at the micro-scale. The microscopic degradation is explicitly modeled by associating Representative Volume Elements (RVEs) to relevant points of the macro continuum, for representing the polycrystalline microstruct…

TechnologyComputational MechanicsPolycrystalline materialsGeneral Physics and AstronomyMultiscale formulationNANOMECHANICSDIFFRACTION09 EngineeringEngineeringPolycrystalline materialComputational mechanicsPeriodic boundary conditionsFAILUREPLASTICITYComputational MechanicApplied MathematicsAUSTENITIC STAINLESS-STEELComputer Science Applications1707 Computer Vision and Pattern RecognitionMechanicsStructural engineeringREPRESENTATIVE VOLUME ELEMENTMicrostructureStrength of materialsMultiscale modelingComputer Science ApplicationsMechanics of MaterialsMultiscale formulationsPhysical SciencesSIMULATIONMicromechanicsSTRESS-CORROSION CRACKINGMathematics Interdisciplinary ApplicationsMaterials scienceHOMOGENIZATIONEngineering MultidisciplinaryMechanicsPhysics and Astronomy (all)Boundary element methodMechanics of MaterialBoundary element methodFORMULATIONMicromechanicSHORT FATIGUE-CRACK01 Mathematical SciencesScience & Technologybusiness.industryMechanical EngineeringMicromechanicsDamage and fractureMICROSTRUCTUREbusinessVoronoi diagramMathematics
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