"Professional CMake" book suggest the following:
"Targets should build successfully with or without compiler support for precompiled headers. It
should be considered an optimization, not a requirement. In particular, do not explicitly include a
precompile header (e.g. stdafx.h) in the source code, let CMake force-include an automatically
generated precompile header on the compiler command line instead. This is more portable across
the major compilers and is likely to be easier to maintain. It will also avoid warnings being
generated from certain code checking tools like iwyu (include what you use)."
Therefore, removed the "#include <PreCompiled.h>" from sources, also
there is no need for the "#ifdef _PreComp_" anymore
The basic tests now run on Windows correctly without needing to manually
copy any files -- the executables are output in the same location as the
necessary DLLs. However, tests that require *.pyd files (all code in the
Mod subdirectory, basically) still do not work on Windows as the test
executables cannot find those files. This is a work in progress.
Fixes: Maintaining schemas is difficult and error-prone
- Facilitate easy schemas add, remove, change, etc.
- Remove 14 files containing approx 2,190 lines of if/else code and data
- Place data in one file (UnitsSchemasData.h) using a normalized structure (including special functions)
- Isolate and simplify data operations (code)
- Remove schemas enum to keep data independent of code
- Separate responsibilities: Specifications, data, schemas, schema
- Add schema data 'isDefault'
- Add schema data name
- Prefer algorithms to raw loops
- Add schemas unit tests
- Tweak quantity unit tests
Refactored code to support local and external material sources
This is the first PR in a series to support external modules. External
modules allow materials to be stored in external data sources such as
databases or web services. No new functionality is introduced in this
PR, rather it is a refactoring of code that will allow for changes to
be introduced in future PRs. Minor performance improvements have also
been made in the model and material managers.
The Python API has been enhanced for many data types to allow for
modification within Python.
The default display type of quantity objects is fixed point resulting
in insufficient accuracy when changing unit systems, or when the values
are small. This fix changes the default format from 'Fixed' to the more
apt 'Default' format. This allows the displayed values to scale as
appropriate.
Fixes#18149
* cMake: Add base support for LibPack3
Minor changes to FreeCAD source code to support compiling with Qt 6.5 on MSVC,
and changes to cMake setup to support the new Libpack.
* NETGENPlugin: Fix compilation with MSVC and OCCT 7.8
* Material: Switch to Wrapped_ParseTupleAndKeywords for /fpermissive- on MSVC
* Base: Prevent accidental definition of MIN and MAX by MSVC
* cMake: Prevent accidentally finding an old LibPack
* Material: Wrap another ParseTuple call
* OCCT: Modify includes for 7.8.x
* Part: Change TNP code to use Wrapped_ParseTupleAndArgs
* Spreadsheet: Workaround for MSVC macro pollution
* Mesh: Workaround for MSVC macro pollution
* Base: Remove extra MSVC flag (moved to CMake)
* Tests: Fix compiling with /permissive-
* FEM: Fix Qt warnings about duplicate element names
* cMake: Ensure major version numbers are set
* Address review comments.
* cMake: Further tweaks for LibPack3
* cMake: Modify specification of compiler flags for MSVC
* Main: Remove QtQuick testing code
* cmake: Find Boost before SMESH (which uses it)
* Fixes for LibPack2
* cMake: Another try at importinhg VTK cleanly
* avoid redefines in Assembly
* explicit cast from size_t to int
* remove unused variables
* avoid implicit cast from double to float
* in test cases replace EXPECT_FLOAT_EQ with EXPECT_DOUBLE_EQ or EXPECT_NEAR when doubles are used
When creating a new material, assigning the basic
rendering model to the material resulted in an all
black color. This will now be assigned the default
color as specified in the preferences.
The name of the material Properties tab has been
changed to Physical for improved consistency in
the user interface.
Dialogs to view the Appearance and Material properties of an object
These inspectors are intended to be used when debugging Appearance and
Material issues in a model.
The Appearance inspector displays the appearance properties of an
object. This will be more useful once PR 13792 is merged which migrates
parts to use ShapeAppearance instead of DiffuseColor. This shows each
of the appearance properties per face for the object.
The Material inspector shows the material, models, and properties
assigned to a model. It displays useful debugging information such as
the UUID and file paths associated with eacch of the items. This is
useful when finding and resolving model conflicts.
The material inspector now gives the option of copying the information
to the clipboard.
Corrects an issue in the API where a new material may not have a UUID.
Corrected the test case to reflect the changes and better document the
process.
Added a test case for material filters.
Uses new material system for appearance
Each feature object now has a property called ShapeMaterial that
describes its physical properties. If it has a shape, it has a
material.
The ShapeColor attribute is replaced by a ShapeAppearance attribute.
This is a material list that describes all appearance properties, not
just diffuse color. As a list in can be used for all elements of a
shape, such as edges and faces.
A new widget is provided to allow the user to select materials in a
consistent fashion. It can also launch the material editor with its
more advanced capabilities.
Continues the work of the material subsystem improvements.
Add support for embedded SVG files. These are not the same
as image files so need to be handled differently.
Add the ability to filter materials in the editor when called from
code. This allows programs to select objects supporting specific
models, complete models, older models, etc.
Updated tests, and refactored code.
New models and materials supporting patterns such as used by the
TechDraw workbench.
fixes#11686 - checks for the presense of a model property before
assinging a value. This can happen when a required model definition is
not available.
---------
Co-authored-by: Chris Hennes <chennes@pioneerlibrarysystem.org>
Continues the work of the material subsystem improvements.
This merge covers the continued development of the material editor. The
primary improvements are the addition of new data types, a new
appearance preview UI, and changes in the array data types.
New data types were added to support more advanced workflows, such as
the Render Workbench.The Image datatype allows the material to embed
the image in the card instead of pointing to an image in an external
file. Multi-buyte strings span multiple lines as the name implies.
It preserves formatting accross those lines. Also several list types
are now supported, with the primary difference being the editors.
List is a list of strings, FileList is a list of file path names, and
ImageList is a list of embedded images.
For the appearance preview, the UI now uses the same Coin library as
is used in the documents, meaning the preview will look exactly the
same as the material will be shown in the documents.
The array data types are now more complete. The default value wasn't
being used as originially envisioned and was tehrefore removed. For
3D arrays, the Python API was implemented.
There were a lot of code clean ups. This involved removing logging
statements used for debugging during development, reduction of lint
warnings, and code refactoring.
The editor can automatically convert from previous format files to the
current format. This has been extended to material files generated by
the Render WB. Old format files are displayed in the editor with a
warning icon. Selecting one will require saving the file in the new
format before it can be used.
Continues the work of the material subsystem improvements.
Several important items are included in this merge. In terms of new
capabilities, this merge adds List and MultiLineString as valid
property types, complete with editing dialogs. This will help with
backwards compatibility for external workbenches, such as Render.
Stability has been a big focus. New unit tests help to verify features
work as expected. Bugs have been fixed and crashes avoided.
Material cards have had a renaming to their tree structure. For
example, 'StandardMeterials' is redundant, so this was renamed to
'Standard'. The cards themselves are more compliant fully passing the
yamllint tests.
More soon.
Continues the work of the material subsystem improvements.
This merge covers the continued development of the material editor. The
primary improvements are in the handling of 2D and 3D array properties.
These properties are now fully editable, and can be saved and restored.
The cards now separate the author and license. These were previously
saved as a single item. Future support will be provided for standard
open source licenses.
Saving operations validate the cards to ensure UUIDs of materials are
considered. Warnings are given when a save could potentially impact the
models, such as saving over a material instead of creating a new
instance.
The editor is still not complete. There are a number of functional
elements, such as drag/drop operations, folder creation, and deletion
operations that need to be added to the main tree. State needs to be
saved and restored to improve the user experience. The appearance
preview also needs significant work. This will be handled in a future
PR.
Rework of the material handling system.
This first part concntrates on a rework of the material cards.
Rather than use a fixed list of possible properties, properties can
be defined separately in their own files and mixed to provide a
complete list of possible properties. Properties can be inherited.
The cards then provide values for the properties. These can also
be inherited allowing for small changes in cards as required.
The new property definitions are more extensive than previously.
2 and 3 dimensional arrays of properties can be defined. Values
are obtained by calling an API instead of reading from a dictionary.
For compatibility, a Python dictionary of values can be obtained
similar to how it was done previously, but this is considered a
deprecated API and won't support the newer advanced features.
The editor is completely reworked. It will be able to edit older format
material cards, but can only save them in the new format.
For testing during the development phase, a system preference can
specifiy wether the old or new material editors are to be used. This
option will be removed before release.
Rework of the material handling system.
This first part concntrates on a rework of the material cards.
Rather than use a fixed list of possible properties, properties can
be defined separately in their own files and mixed to provide a
complete list of possible properties. Properties can be inherited.
The cards then provide values for the properties. These can also
be inherited allowing for small changes in cards as required.
The new property definitions are more extensive than previously.
2 and 3 dimensional arrays of properties can be defined. Values
are obtained by calling an API instead of reading from a dictionary.
For compatibility, a Python dictionary of values can be obtained
similar to how it was done previously, but this is considered a
deprecated API and won't support the newer advanced features.
The editor is completely reworked. It will be able to edit older format
material cards, but can only save them in the new format.
For testing during the development phase, a system preference can
specifiy wether the old or new material editors are to be used. This
option will be removed before release.
