Significantly reduce turnaround time thanks to domain parts excluded from the moving grid
Enables coupling of parts, which will be meshed static, not participating in the morph & map operation
Targets use cases for which motion is not involved, e.g. intake plenums, pre-chamber, fuel injectors
Makes use of separate mesh operations
allowing for coarser meshing where resolution is not needed
Improved ease of use by streamlining an error-prone procedure
Simplifies specification of initial and boundary conditions for the static parts
70% fewer clicks compared to the equivalent manual workflow
Turbulent flame quenching for ECFM
Accurately model Turbulent Jet Ignition
(TJI) with the ability to account for turbulent flame quenching in broken
reaction zones
New expert
property Turbulent Quenching available with ECFM combustion
model
Possibility to
choose Internal method where quenching is controlled by
Reaction Zone Thickness Multiplier or User Defined
Turbulence Flame Quenching for more detailed implementation
e.g. Using Field Functions
Introduction of mixed precision version check
Reduced opportunity for errors in
simulation pipeline thanks to a new version usage check
Ensures that the
double-precision version of the executables is used, essential for
In-Cylinder Solution
Displays appropriate
warning in pop-up window and simulation log
Avoids errors and
divergences during the simulations
Does not check files saved
with mixed-precision versions, at least once
Cone Angle Sampling Polynomial Exponent in In-Cylinder injection
panel
Increased productivity thanks to model parameter available in
the In-Cylinder user interface
Allows for customization of the spray plume generated
by solid cone and hollow cone injectors
The exponent specifies the underlying polynomial used
in the sample density of parcels
No longer required to resort to the main simulation
tree to modify the underlying parameter
Increased value lead to spray plumes with distribution
biased towards the centerline of the injector nozzles, while unity
denotes a uniform distribution
Support of non-zero oxygen in initialization of Exhaust Gas
Recirculation
Greater fidelity via an improved specification of species
composition with Specified Burn Rate model
Addresses the limitation of the model with regard to a
zero oxygen requirement in Exhaust Gas Recirculation
Enables automatic specification for all species of
Specified Burn Rate eliminating the need for manual adjustments
Ensures consistency across operating points and mixture
characterization
Introduction of second axis in histogram plots of mass fraction
burned and combustion duration
Accelerate review of post-processing results thanks to an
improved histogram plot
Complements the mass fraction burnt and combustion
duration work, delivered in 2402
Plots the 10-90% combustion duration bars on a separate
right Y-axis
Adopts a better range for the values of the left Y-axis,
improving readability by amplifying differences between the bars
reflecting mass fraction burned