- previously had codeAddSup used for both incompressible and
compressible source terms. However, it was not actually possible to
use it for compressible sources since any references to the 'rho'
parameter would cause a compilation error for the incompressible case.
Added 'codeAddSupRho' to distinguish the compressible case.
User must supply one or both of them on input.
- in some cases, additional dictionary inputs are useful for extending
the input parameters or functionality of dynamic coded conditions.
Typically this can be used to provide a simple set of dictionary
inputs that are used to drive specific code, but allows changing the
inputs without causing a recompilation.
Accessed with this type of code:
```
const dictionary& dict = this->codeContext();
```
boundary conditions and function objects:
* specify an additional codeContext dictionary entry:
```
codeContext
{
...
}
```
PatchFunction1:
* The code context dictionary is simply the dictionary used to specify
the PatchFunction1 coefficients.
To replicated persistant data, use local member static data.
Eg,
```
code
#{
// Persistent (Member) Data
static autoPtr<Function1<scalar>> baseVel;
static autoPtr<Function1<vector>> baseDir;
...
#}
```
fvOptions:
* currently not applicable
- meshTools include/library for many (most) coded items
- add PatchFunction1 include for coded BCs to provide ready access
to Function1 and PatchFunction1
- for codedFunctionObject and CodedSource the main code snippets
were not included in the SHA1 calculation, which meant that many
changes would not be noticed and no new library would be compiled.
As a workaround, a dummy 'code' entry could be used solely for the
purposes of generating a SHA1, but this is easily forgotten.
We now allow tracking of the dynamicCodeContext for the coded
objects and append to the SHA1 hasher with specific entries.
This should solve the previous misbehaviour.
We additionally add information about the ordering of the code
sections. Suppose we have a coded function object (all code
segments are optional) with the following:
codeExecute "";
codeWrite #{ Info<< "Called\n"; #};
which we subsequently change to this:
codeExecute #{ Info<< "Called\n"; #};
codeWrite "";
If the code strings are simply concatenated together, the SHA1 hashes
will be identical. We thus 'salt' with their semantic locations,
choosing tags that are unlikely to occur within the code strings
themselves.
- simplify the coded templates with constexpr for the SHA1sum
information.
- Correct the CodedSource to use 'codeConstrain' instead of
'codeSetValue' for consistency with the underlying functions.
