- for larger problems with a smaller region of interest, can apply a
bounding to limit the size of the ensight geometry and fields created.
Since the implementation uses a fvMeshSubset, there is an additional
per-process memory overhead.
A high output frequency should be avoided with moving meshes, since
this indirectly forces a frequent update of the submesh.
- the original intention was to avoid vtp output when the clouds are
empty anyhow. However, it is useful for post-processing to have
clouds with zero parcels (eg, before the start of injection).
Pruning of empty clouds is now an option in the vtkCloud dictionary
controls, with the default being false (no pruning). This represents
a non-breaking change in behaviour since it generates more output
than previously.
Example,
{
type vtkCloud;
//- Suppress writing of empty clouds (default: false)
prune true;
}
- functionObjectLibs -> libs
- redirectType -> name
- change deprecated writeCompression flags types to Switch.
- cleanup some trailing ';;' from some dictionaries
- this provides easily sortable names.
The time information is available via the corresponding .series
file, which can also be loaded directly with ParaView 5.5 or later.
For further redundancy, time information is saved in the first XML
comment inside of the .vtp files. For example,
<!-- cloud=limestoneCloud1 time=0.005 index=200 -->
- improves backward compatibility and more naming consistency.
Retain setMany(iter1, iter2) to avoid ambiguity with the
PackedList::set(index, value) method.
Computes the heat transfer coefficient [W/m2/K] using a run-time
selectable model:
- ReynoldsAnalogy
- fixedReferenceTemperature
- localReferenceTemperature
- disallow insert() of raw pointers, since a failed insertion
(ie, entry already existed) results in an unmanaged pointer.
Either insert using an autoPtr, or set() with raw pointers or autoPtr.
- IOobjectList::add() now takes an autoPtr instead of an object reference
- IOobjectList::remove() now returns an autoPtr instead of a raw pointer
- default is now without polyhedral decomposition, since this produces
compacter files and VTK mananges this in most instances.
However, provide function object flag to reinstate the old behaviour.
Calculates and outputs a field whose values are offset to a reference
value obtained by sampling the field at a user-specified location.
The field values are calculated using:
\f[
f_c = s(f_{c,t} - f_p + f_{off})
\f]
where
\vartable
f_c | field values at cell
s | optional scale factor (default = 1)
f_{c,t} | current field values at cell at this time
f_p | field value at position
f_{off} | offset field value (default = 0)
\endvartable
Usage
Example of function object specification to calculate the reference
field:
\verbatim
pRef
{
type reference;
libs ("libfieldFunctionObjects.so");
...
field p;
result pRef;
position (0 0 0);
scale 1.2;
offset 100000;
}
\endverbatim
- improvement documentation for surface sampling.
- can now specify alternative sampling scheme for obtaining the
face values instead of just using the "cell" value. For example,
sampleScheme cellPoint;
This can be useful for cases when the surface is close to a boundary
cell and there are large gradients in the sampled field.
- distanceSurface now handles non-closed surfaces more robustly.
Unknown regions (not inside or outside) are marked internally and
excluded from consideration. This allows use of 'signed' surfaces
where not previously possible.
- The iterator for a HashSet dereferences directly to its key.
- Eg,
for (const label patchi : patchSet)
{
...
}
vs.
forAllConstIter(labelHashSet, patchSet, iter)
{
const label patchi = iter.key();
...
}
