mod_energy Module

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

C-Binding interface for Cantera thermodynamics.

The C++ bridge expects temperatures $T$, thermodynamic pressures $p_0$, and normalized solver species mass fractions $Y_k$. It returns sensible enthalpy using $$h_{sens}(T,Y,p_0) = h_{abs}(T,Y,p_0) - h_{abs}(T_{ref},Y,p_0)$$ and recovers temperature by adding the same-composition reference enthalpy before Cantera HP inversion. Projection pressure is never passed to these calls.

Cell-centered energy variables.

Components

Convert a boundary temperature to enthalpy using the active thermo model. Boundary enthalpy from a boundary temperature.

Arguments

Return Value real(kind=rk)

Normal distance used for cell-cell and cell-boundary temperature gradients.

Arguments

Return Value real(kind=rk)

Outward unit normal from cell_id for face_id.

Arguments

Return Value real(kind=rk), (3)

Constant-cp helper for a single boundary/face temperature value.

Arguments

Return Value real(kind=rk)

Advance cell-local Cantera chemistry on owned cells.

Arguments

Advance transported sensible enthalpy one explicit finite-volume step.

Arguments

Allocate all energy arrays for the mesh.

Arguments

Compute species sensible enthalpies h_k(T)-h_k(T_ref) [J/kg_k] for all cells.

Arguments

Deallocate all energy arrays.

Arguments

Initialize energy fields from case parameters.

Arguments

Recover T from h and refresh cp/lambda/rho_thermo in one Cantera sync.

Arguments

Recover T from h using Cantera HPY inversion.

Arguments

Recover T from h using the constant-cp thermodynamic model.

Arguments

Refresh h/cp/lambda/rho_thermo from the current temperature field.

Arguments

Update h from T using the constant-cp thermodynamic model.

Arguments

Print bridge-level Cantera cache statistics, summed over flow ranks.

Arguments

Initialize chemistry workload diagnostics CSV.

Arguments

Print accumulated chemistry workload and screening effectiveness statistics.

Arguments

Writes the CSV header for energy diagnostics.

Arguments

Appends one row of global energy diagnostics.

Arguments

Reset the volumetric energy source to zero.

Arguments

Accumulate local chemistry workload/screening statistics.

Arguments

Build a boundary thermodynamic composition vector for fixed-T boundaries.

Arguments

Build a flattened C-compatible species-name buffer.

Arguments

Build a cellwise thermodynamic composition array for Cantera calls.

Arguments

Compute h(T,Y,p0) for one boundary state using Cantera.

Arguments

Owned-cell thermo sync for the timestep hot path.

Arguments

Owned-cell fused thermo sync plus species sensible enthalpies.

Arguments

Resolve optional named chemistry active-species screening names to current species indices.

Arguments

Compute species sensible enthalpies for one boundary/face state.

Arguments

Update h, cp, lambda, and diagnostic thermo density from current T.

Arguments

Arguments

Targeted diagnostics for experimental variable-density energy/Cantera HP failures.

Arguments