* Remove ^M characters from Dictionary test
Using Github's automatic line ending conversion to CRLF.
* Remove ^M characters from dictionary_delete test
* Remove ^M characters from dictionary_in test
The mouse picking behavior in AVM2 interacts in complicated
ways with `mouseEnabled` and `mouseChildren.` It's sufficiently
different from AVM1 that I decided to split the logic into separate
`mouse_pick_avm1` and `mouse_pick_avm2` methods.
The `mouseChildren` property is now fully implemented.
Additionally, the `click_block` tests now work correctly
under Ruffle.
Combined with the orphan-movie PR, this is enough to make
SteamBirds fully playable (though performance greatly degrades
over a course of a level).
These getters were previously calling `local_to_global`
with the unused localX/localY coordinate set to 0. Howver,
`local_to_global` does a matrix multiplication, which in general
will depend on both the x and y values. This was causing the getters
to return incorrect results when any of the `transform.matrix` values
included a non-diagonal matrix.
We now call `local_to_transform` with the real `localX` and `localY`
values.
This is needed by the Newgrounds API. We don't have the ability
to make fake requests to HTTP urls in our test frameworks,
so I haven't added any tests for this. However, I tested locally
that this allows the Newgrounds API to work (and got a medal
in Cloud Wars).
When removing a clip, first check if it has an unload event listener somewhere
it's hierarchy.
If it does, enqueue the removal to happen on the next frame, by moving it to a negative depth.
Previously, we would strip trailing newlines from the contents
of 'output.txt' files, and skip adding a trailing newline after
the final recorded `trace` call.
To reduce the amount of processing we do of expected/ruffle output,
and to make fpcompare tests easier, I've removed the special handling
of newlines. When recording `trace` calls, we now build up a single
large `String`, with a newline after every `trace` message. When
reading in an 'output.txt' file, we do not strip any newlines.
This required adding trailings newlines to lots of 'output.txt' files,
to match the behavior of Ruffle and Flash (the last 'trace' message
ends with a newline, just like every other 'trace' message).
This is a port of a similar regression test written for AVM1.
AVM1 also has a test for hitTestPoint with shapeFlag=true, but it can't
be ported for now, because the implementation of AVM2 hit testing is not
yet accurate enough for it.
* tests: Add a test for issue #8630
* core: No-op gotos in AS3 do not actually do anything, even though they emit events
Fixes issue #8630
* tests: Add more tests for various #8630-adjacent cases
* tests: Ignore the tests with script removal as they expect MovieClip children to be nulled upon removal
* chore: Case sensitive filesystem fix
Co-authored-by: Adrian Wielgosik <adrian.wielgosik@gmail.com>
This PR implements core 'stage3D' APIs. We are now able
to render at least two demos from the Context3D docs - a simple
triangle render, and a rotating cube.
Implemented in this PR:
* Stage3D access and Context3D creation
* IndexBuffer3D and VertexBuffer3D creation, uploading, and usage
* Program3D uploading and usage (via `naga-agal`)
* Context3D: configureBackBuffer, clear, drawTriangles, and present
Not yet implemented:
* Any 'dispose()' methods
* Depth and stencil buffers
* Context3D texture apis
* Scissor rectangle
General implementation strategy:
A new `Object` variant is added for each of the Stage3D objects
(VertexBuffer3D, Program3D, etc). This stores a handle to the
parent `Context3D`, and (depending on the object) a handle
to the underlying native resource, via `Rc<dyn
SomeRenderBackendTrait>`).
Calling methods on Context3D does not usually result in an immediate
call to a `wgpu` method. Instead, we queue up commands in our
`Context3D` instance, and execute them all on a call to `present`.
This avoids some nasty wgpu lifetime issues, and is very similar
to the approah we use for normal rendering.
The actual rendering happens on a `Texture`, with dimensions
determined by `createBackBuffer`. During 'Stage' rendering,
we render all of these Stage3D textures *behind* the normal
stage (but in front of the overall stage background color).
This is linked to the legacy DisplayObject::Text, which can
only be created by Flash CS6 (but is allowed in AVM2 swfs).
The 'StaticText' class cannot be constructed from ActionScript.
To support this, I've added support for native initializers to
playerglobal. This allows us to throw an exception in the
ActionScript constructor in Test.as, and do nothing in the native
intiializer (so that we can construct it from a DisplayObject).
I've left StaticText.text unimplemented for now, since it will require
dealing with Glyphs
Co-authored-by: kmeisthax <dcrkid@yahoo.com>
This is the first part of the Stage3D implementation, and can
be reviewed independently.
Stage3D shaders use the Adobe Graphics Assembly Language (AGAL),
which is a binary shader format. It supports vertex attributes,
varying registers, program constants (uniforms), and texture sampling.
This PR only implements a few parts of AGAL:
* The 'mov' and 'm44' opcodes
* Vertex attributes, varying registers, program constants, and 'output'
registers (position or color, depending on shader type)
This is sufficient to get a non-trivial Stage3D program
running (the rotating cube demo from the Adobe docs).
The output of `naga-agal` is a `naga::Module`. This can be passed
directly to wgpu, or compiled into a shader language using
a Naga backend (glsl, wgsl, SPIR-V, etc). The test suite
output WGSL files, and uses the 'insta' crate to compare against
saved files on disk.
Currently, the only real way to write AGAL bytecode is using
the Adobe-provided 'AGALMiniAssembler' flash class.
This class assembles the textual reprentation of AGAL into
the binary format.
To make writing tests easier, I've added a 'agal_compiler' test, which
can easily be modified to add more Agal textual assembly.
This PR fixes a numbe of interconnected bugs:
* We weren't consistently uploading a dirty BitmapData to the render
backend before drawing to/from it.
* BitmapData.draw should *not* add a fill color - it should draw over
the current contents of the BitmapData
* After drawing to a non-transparent BitmapData, we need to manually
set the opacity back to 255 for each pixel (the drawing process
takes transparency into account, but the opacity information is
thrown away at the end).
These methods were incorrectly treating the argument as a local name,
instead of a qualified name. Additionally, 'getDefinition' now throws
an AVM error.
Previously, we would display an empty string for the method name.
We can now store a `&'static str` again in `NativeMethod`,
instead of needing a `Cow`
Now that we have a custom `Error` enum, this is very straightforwawrd.
I've converted `getDefinitionByName` return an AVM error, since this
is commonly used by games to test for a class.
Backends that need synchronous preload behavior now explicitly ask for it as follows:
* `tests` - repeatedly call `preload` in a loop with an exhausted execution limit to stress-test the chunked preload
* `exporter`, `scanner` - synchronous/unlimited preload to match prior behavior
These may change in the future.
Previously, we would only use mergeAlpha if alphaBitmapData
and alphaPoint. However, mergeAlpha can be used even when
those parameters are null.
Some of the AVM1 argument handling was also incorrect - I've fixed
it, and extended the existing test with the output-based test
added for AVM2.
Previously, we would always use a transparent background,
even if the BitmapData is not transparent. This would normally
be corrected on the next frame when we copied the pixels to the
CPU. However, if an SWF ran `BitmapData.draw` on every frame,
this would never be corrected.
When rendering offscreen, we want the resulting image to use
premultiplied alpha, since the image will be stored in a texture.
However, when capturing an image in the exporter or test framework,
we want to use straight alpha, so that the resulting image can
be saved as a PNG.
Previously, we incorrectly used straight alpha everywhere, resulting
in incorrect output when using BitmapData.draw with transparency.
Our AVM2 `SharedObject` support is now *almost* equivalent
to our avm1 `SharedObject` support. We implement serialization
and deserialization for primitives, arrays, and `Object` instances
with local properties. We also implement serialization for `Date`,
but not `Xml` (since our AVM2 `Xml` class is just a stub at the moment).
This is enough to make 'This is the only level too' save level
progress to disk.
Currently, we always serialize to AMF3. When we implement
the `defaultObjectEncoding` and `objectEncoding`, we'll need
to adjust this.
We now check if a BitmapData has been disposed by checking
for a zero width or height (which cannot happen otherwise).
As a result, we no longer need the 'disposed' field on the AVM1
BitmapData object.
* avm2: Implement `BitmapData.draw` for `wgpu` backend
This method requires us to have the ability to render directly to a
texture. Fortunately, the `wgpu` backend already supports this in
the form of `TextureTarget`. However, the rendering code required
some refactoring in order to avoid creating duplicate `wgpu` resources.
The current implementation blocks on copying the pixels back
from the GPU to the CPU, so that we can immediately set them in
the Ruffle `BitmapData`. This is likely very inefficient, but will
work for a first implementation.
In the future, we could explore allowing the CPU image data and GPU
texture to be out of sync, and only synchronized when explicitly
necessary (e.g. on `getPixel` or `setPixel` calls).
* Rename `with_offscreen_backend` to `render_offscreen` and use Bitmap
* Don't panic when backend doesn't implement `render_offscreen`
The stub implementation was breaking code that relied on being
able to set a value for 'mask' and then retrieve it
(which used to work on a dynamic class like `MovieClip`).
Fixes some issues with our winding # calculation which would cause
incorrect results for hitTest.
* The convention for handling an intersection at endpoints was
not the same between lines and bezier curves.
* The bezier curve winding # function was not properly handling
some cases where the curve was strictly y-monotonic.
* Simplify the code a bit so that ray-curve intersections are
returned in a consistent order based on upward/downward crossing.
Nathan Adams