International Journal for Numerical Methods in Engineering · 2004 · 38 citations · 10 references
EngineeringPolymer Sandwich PanelsMechanical EngineeringComposite PanelStructural OptimizationThermoplastic CompositeHeat SourceStructural EngineeringMechanics ModelingNumerical SimulationThermal AnalysisPolymer CompositesThermal ModelingThermodynamicsMaterials ScienceThermal ProtectionComposite TechnologyStructural Fire SafetyHeat TransferFinite Element MethodFinite Element ModellingStructural Fire EngineeringTemperature DistributionStructural MechanicsThermal EngineeringThermal Insulation
Abstract A finite element model that predicts temperature distribution in a composite panel exposed to a heat source, such as fire, is described. The panel is assumed to be composed of skins consisting of polymer matrix reinforced with fibres and a lightweight core (the paper concentrates on the crucial aspect of the problem, i.e. the behaviour of the ‘hot’ skin of the panel. The core is assumed not to decompose, and the ‘cold’ skin is treated exactly as the ‘hot’ skin.) It is assumed that the polymer matrix undergoes chemical decomposition. Such a model results in a set of coupled non‐linear transient partial differential equations. A Galerkin finite element framework is formulated to yield a fully implicit time stepping scheme. The crucial input parameters for the model are carefully identified for subsequent experimental determination. Copyright © 2004 John Wiley & Sons, Ltd.
10
R. Byron Bird · Applied Mechanics Reviews · 2002 · 1.1K citations
John Florio, J. B. Henderson, F. L. Test et al. · International Journal of Heat and Mass Transfer · 1991 · 101 citations