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DynaflowTM

Chapter 10

10.0	Material Models
	10.0	Material Control Information
		10.0.1	Define a Material Model
		10.0.2	Stress Models
		10.0.3	Heat Conduction Models
		10.0.4	Scalar Diffusion Models
		10.0.5	Electric Models
	10.1	Stress_Model:  Linear Isotropic Elasticity Model
	10.2	Stress_Model:  Linear Orthotropic Elasticity Model
	10.3	Stress_Model:  Hyperelasticity Model
	10.4	Stress_Model:  Mises Viscoelastic Creep Model
	10.5	Stress_Model:  Von Mises Elasto-(Visco-) Plastic Model
	10.6	Stress_Model:  Drucker-Prager Elasto-(Visco-) Plastic Model
	10.7	Sterss_Model:  Matsuoka Elasto-(Visto-) Plastic Model
	10.8	Stress_Model:  Cap Model (Geomatertials)
	10.9	Stress_Model:  Multi-Yield Elasto-Plastic Models (Geomaterials)
	10.10	Stress_Model:  Multi-Mechanism Elasto-Plastic Models (Geomaterials)
		10.10.1	Material Properties Cards
	10.11	Stress_Model:  Phillips Consistutive Model
		10.11.1	Material Control Data
		10.11.2	Material Properties Data
		10.11.3	Uniaxial Stress-Strain Curves and Creep Data
	10.12	Stress_Model:  Isotropic Hypo Plastic Model
	10.13	Stress_Model: Mohr_Coulomb Elasto-(Visco-) Plastic Model
	10.14	Stress_Model:  ID Multi-Yield Model
	10.15	Stress_Model:  Newtonian Fluid Model
	10.16	Heat_Conduction_Model:  Generalized Heat Conduction Model
		10.16.1	Multi_Phase Fluid Flow
	10.17	Scalar_Diffusion_Model:  Generalized Scalar Diffusion Model
		10.17.1	Multi-Phase Fluid Flow
			10.17.1.1	Fluid Phase Data
			10.17.1.2	Relative Permeability and Capillary Pressure Data
	10.18	Electric_Model:  Generalized Electric Model

 

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