use crate::{
constitutive::solid::elastic_hyperviscous::ElasticHyperviscous,
fem::{
ElementModelError, NodalCoordinates, NodalVelocities,
block::{
Block, element::FiniteElementError,
element::solid::elastic_hyperviscous::ElasticHyperviscousFiniteElement,
},
solid::{
elastic_hyperviscous::ElasticHyperviscousElements, viscoelastic::ViscoelasticElements,
},
},
math::Quantity,
units::Power,
};
impl<C, F, const G: usize, const M: usize, const N: usize, const P: usize>
ElasticHyperviscousElements<3> for Block<C, F, G, M, N, P>
where
C: ElasticHyperviscous,
F: ElasticHyperviscousFiniteElement<C, G, M, N, P>,
Self: ViscoelasticElements<3>,
{
fn viscous_dissipation(
&self,
nodal_coordinates: &NodalCoordinates<3>,
nodal_velocities: &NodalVelocities<3>,
) -> Result<Quantity<Power>, ElementModelError> {
self.elements()
.iter()
.zip(self.connectivity())
.map(|(element, nodes)| {
element.viscous_dissipation(
self.constitutive_model(),
&Self::element_coordinates(nodal_coordinates, nodes),
&Self::element_coordinates(nodal_velocities, nodes),
)
})
.sum::<Result<_, FiniteElementError>>()
.map_err(|error| ElementModelError::upstream(error, self))
}
fn dissipation_potential(
&self,
nodal_coordinates: &NodalCoordinates<3>,
nodal_velocities: &NodalVelocities<3>,
) -> Result<Quantity<Power>, ElementModelError> {
self.elements()
.iter()
.zip(self.connectivity())
.map(|(element, nodes)| {
element.dissipation_potential(
self.constitutive_model(),
&Self::element_coordinates(nodal_coordinates, nodes),
&Self::element_coordinates(nodal_velocities, nodes),
)
})
.sum::<Result<_, FiniteElementError>>()
.map_err(|error| ElementModelError::upstream(error, self))
}
}