remove equations of state, change chemistry

slides/materialsystem.md

@@ -19,9 +19,14 @@ title: Material system
 * Solid system
 * Binary coefficients
 * Fluid-matrix interactions
+
+## <ins> Chemical properties and equation of states: </ins>
+
 * Chemistry
 * Equation of state (Eos)
 
+**Note:** _These contains some specific example implementations. One can implement specific things according to their need here._
+
 ## <ins> Dumux-specific containers and solvers </ins>
 
 - Fluid states
@@ -54,8 +59,7 @@ title: Material system
 
 ## <ins> What it does: </ins>
 
-* Expresses the **thermodynamic relations between fluid quantities** (e.g. calculation of density or viscosity based on composition, fugacity coefficient based on temperature and pressure...)
-* Stateless classes (all member functions are static)
+Expresses the **thermodynamic relations between fluid quantities** (e.g. calculation of density or viscosity based on composition, fugacity coefficient based on temperature and pressure...)
 
 ## <ins> Example implementations: </ins>
 
@@ -71,13 +75,11 @@ title: Material system
 
 ## <ins> What it does: </ins>
 
-  **Contains** data required for binary mixtures (e.g. binary diffusion coefficients, coefficients needed for constitutive relationships (like Henry coefficient))
+  **Contains** data and equations required for binary mixtures (e.g. binary diffusion coefficients, coefficients needed for constitutive relationships (like Henry coefficient))
 
 ## <ins> Example implementations: </ins>
 
-* _H2O_Air_
-
-* _Brine_CO2_
+* _H2O_Air_ : Henry coefficient, gas diffusion coefficient, liquid diffusion coefficent for water and air
 
 # Material system: Solid system
 
@@ -87,8 +89,12 @@ title: Material system
 
 ## <ins> What it does: </ins>
 
-* Expresses the **thermodynamic properties of the solid matrix** (e.g. calculation of the solid density and solid heat capacity based on the composition...)
-* Stateless classes (all member functions are static)
+Expresses the **thermodynamic properties of the solid matrix** (e.g. calculation of the solid density and solid heat capacity based on the composition...)
+
+<ins> Note to solid system </ins>
+
+_Specifying a solid system is only necessary if you work with a non-isothermal or mineralization model. If no solid system is specified in the problem file, the default is the inert solid phase with the constant component. For the constant component you can set properties in the input file._
+
 
 ## <ins> Implementations: </ins>
 
@@ -103,14 +109,13 @@ title: Material system
 
 ## <ins> What it does: </ins>
 
-* Description of the **interaction of the fluid phases with the porous medium** (e.g. capillary pressure and relative permeability relationships)
+* Description of the **interaction of the fluid phases with the porous medium** (e.g. capillary pressure-saturation and relative permeability relationships)
 * Through modular adapters, regularization schemes can be imposed for extreme values
 
 ## <ins> Example implementations: </ins>
 
-* _VanGenuchten_
-
-* _BrooksCorey_
+* _VanGenuchten_ :
+* _BrooksCorey_ :
 
 # Material system: Chemistry
 
@@ -120,32 +125,13 @@ title: Material system
 
 ## <ins> What it does: </ins>
 
-* Expresses the **electrochemical models for a fuel cell application** (e.g. calculattion of reaction sources with an electrochemical model approach)
-* Stateless classes (all member functions are static)
+Reactions between different components. There are extra models, usually they are realized with the introduction of a **source term**.
 
 ## <ins> Example implementations: </ins>
-
+Expresses the **electrochemical models for a fuel cell application**
 * _Electrochemistry_ : for isothermal system
 * _Electrochemistryni_ : for non-isothermal system
 
-# Material system: Equation of state
-
-## Equation of state
-
-<img src="img/eos.png" width="250"/>
-
-## <ins> What it does: </ins>
-
-* Implements the **equation of state** for liquids and gases, and also for mixture (e.g. compute vapor pressure, molar volume, etc.)
-* Stateless classes (all member functions are static)
-
-## <ins> Example implementations: </ins>
-
-* _Pengrobinson_ : eos for liquid and gas
-* _Pengrobinsonmixture_ : eos for a mixture
-
-
-
 # Material system: Fluid state
 
 ## Fluid state
@@ -159,8 +145,8 @@ title: Material system
 
 ## <ins> Example implementations: </ins>
 
- * _ImmiscibleFluidState_: assumes immiscibility of the fluid phases. Phase compositions and fugacity coefficients do not need to be stored explicitly
- * _CompositionalFluidState_: assumes thermodynamic equilibrium, only a single temperature needs to be stored
+ * _ImmiscibleFluidState_ : assumes immiscibility of the fluid phases. Phase compositions and fugacity coefficients do not need to be stored explicitly
+ * _CompositionalFluidState_ : assumes thermodynamic equilibrium, only a single temperature needs to be stored
 
 # Material system: Solid state
 
@@ -175,9 +161,9 @@ title: Material system
 
 ## <ins> Example implementations: </ins>
 
-* _InertSolidState_: assumes an inert solid phase. Solid volume fractions do not change
+* _InertSolidState_ : assumes an inert solid phase. Solid volume fractions do not change
 
-* _CompositionalSolidState_: assumes a solid matrix composed out of two components. The volume fractions can change and properties such as heat capacity are adapted
+* _CompositionalSolidState_ : assumes a solid matrix composed out of two components. The volume fractions can change and properties such as heat capacity are adapted
 
 # Material system: Constraint Solver
 
@@ -191,11 +177,11 @@ title: Material system
 
 ## <ins> Example implementation: </ins>
 
-CompositionFromFugacities: takes all component fugacities, the temperature and pressure of a phase as input and calculates the phase composition
+_CompositionFromFugacities_ : takes all component fugacities, the temperature and pressure of a phase as input and calculates the phase composition
 
 # Example: From component to fluid system
 
-## Component ---> fluid system
+## Component **--->** fluid system
 
 <img src="img/component-fluidsystem.png" width="500"/>
 
@@ -253,9 +239,6 @@ struct SolidSystem<TypeTag, TTag::ThermoChem>
     using type = SolidSystems::CompositionalSolidPhase<Scalar, ComponentOne, ComponentTwo>;
 };
 ```
-## Note to solid system
-
-Specifying a solid system is only necessary if you work with a non-isothermal or mineralization model. If no solid system is specified in the problem file, the default is the inert solid phase with the constant component. For the constant component you can set properties in the input file.
 
 
 # Exercise
@@ -269,3 +252,4 @@ Specifying a solid system is only necessary if you work with a non-isothermal or
 5. Advanced: Use van Genuchten relationship with parameters: alpha = 0.0037 and alphalense = 0.00045, n = 4.7 and nlense = 7.3
 
 **First step:** Go to <https://git.iws.uni-stuttgart.de/dumux-repositories/dumux-course/tree/master/exercises/exercise-fluidsystem> and check out the README
+