def check_capture(self):
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
for base_event_name in ["sm5.0", "sm5.1", "sm6.0"]:
base = self.find_action(base_event_name)
if base is None:
continue
base_event = base.eventId
rdtest.log.print("Checking tests on {}".format(base_event_name))
super(D3D12_Overlay_Test, self).check_capture(base_event)
rdtest.log.success(
"Base tests worked on {}".format(base_event_name))
# Don't check any pixel values, but ensure all overlays at least work with no viewport/scissor bound
sub_marker: rd.ActionDescription = self.find_action(
"NoView draw", base_event)
self.controller.SetFrameEvent(sub_marker.next.eventId, True)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
for overlay in rd.DebugOverlay:
if overlay == rd.DebugOverlay.NoOverlay:
continue
# These overlays are just displaymodes really, not actually separate overlays
if overlay == rd.DebugOverlay.NaN or overlay == rd.DebugOverlay.Clipping:
continue
if overlay == rd.DebugOverlay.ClearBeforeDraw or overlay == rd.DebugOverlay.ClearBeforePass:
continue
rdtest.log.success(
"Checking overlay {} with no viewport/scissor".format(
str(overlay)))
tex.overlay = overlay
out.SetTextureDisplay(tex)
out.Display()
overlay_id: rd.ResourceId = out.GetDebugOverlayTexID()
rdtest.log.success(
"Overlay {} rendered with no viewport/scissor".format(
str(overlay)))
rdtest.log.success(
"extended tests worked on {}".format(base_event_name))
out.Shutdown()
def check_capture(self):
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(rd.CreateHeadlessWindowingData(100, 100), rd.ReplayOutputType.Texture)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
texdetails = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2), int(texdetails.height / 2), 0, 0, 0)
if not rdtest.value_compare(picked.floatValue, [1.0, 0.0, 0.0, 1.0]):
raise rdtest.TestFailureException("Picked value {} doesn't match expectation".format(picked.floatValue))
rdtest.log.success("picked value is as expected")
out.Shutdown()
def check_pixel_value(self,
tex: rd.ResourceId,
x,
y,
value,
eps=util.FLT_EPSILON):
tex_details = self.get_texture(tex)
res_details = self.get_resource(tex)
if type(x) is float:
x = int(tex_details.width * x)
if type(y) is float:
y = int(tex_details.height * y)
if self.pickout is None:
self.pickout: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(self.pickout is not None)
texdisplay = rd.TextureDisplay()
texdisplay.resourceId = tex
self.pickout.SetTextureDisplay(texdisplay)
picked: rd.PixelValue = self.pickout.PickPixel(tex, False, x, y, 0, 0,
0)
if not util.value_compare(picked.floatValue, value, eps):
raise TestFailureException(
"Picked value {} at {},{} doesn't match expectation of {}".
format(picked.floatValue, x, y, value))
log.success("Picked value at {},{} in {} is as expected".format(
x, y, res_details.name))
def check_capture(self):
rdtest.log.success("Got {} captures as expected".format(
self.demos_frame_count))
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.overlay = rd.DebugOverlay.Drawcall
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
out.SetTextureDisplay(tex)
out.Display()
overlay_id = out.GetDebugOverlayTexID()
v = pipe.GetViewport(0)
self.check_pixel_value(overlay_id,
int(0.5 * v.width),
int(0.5 * v.height), [0.8, 0.1, 0.8, 1.0],
eps=1.0 / 256.0)
out.Shutdown()
rdtest.log.success("Overlay color is as expected")
def check_capture(self):
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
# find the first draw
draw = self.find_draw("Draw")
# check the centre pixel of the viewport is white
self.controller.SetFrameEvent(draw.eventId, False)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
view: rd.Viewport = pipe.GetViewport(0)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(view.width / 2),
int(view.height / 2), 0, 0, 0)
if not rdtest.value_compare(picked.floatValue, [1.0, 1.0, 1.0, 1.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("Picked value for first draw is as expected")
# find the second draw
draw = self.find_draw("Draw", draw.eventId + 1)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
view: rd.Viewport = pipe.GetViewport(0)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(view.width / 2),
int(view.height / 2), 0, 0, 0)
if not rdtest.value_compare(picked.floatValue, [1.0, 1.0, 1.0, 1.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("Picked value for second draw is as expected")
def check_capture(self):
apiprops: rd.APIProperties = self.controller.GetAPIProperties()
if not apiprops.rgpCapture:
rdtest.log.print("RGP capture not tested")
return
path = self.controller.CreateRGPProfile(rd.CreateHeadlessWindowingData(100, 100))
if os.path.exists(path) and os.path.getsize(path) > 100:
rdtest.log.success("RGP capture created successfully")
else:
raise rdtest.TestFailureException("RGP capture failed")
def check_capture(self):
super(VK_Overlay_Test, self).check_capture()
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
# Don't check any pixel values, but ensure all overlays at least work with rasterizer discard and no
# viewport/scissor bound
sub_marker: rd.DrawcallDescription = self.find_draw("Discard Test")
self.controller.SetFrameEvent(sub_marker.next.eventId, True)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
for overlay in rd.DebugOverlay:
if overlay == rd.DebugOverlay.NoOverlay:
continue
# These overlays are just displaymodes really, not actually separate overlays
if overlay == rd.DebugOverlay.NaN or overlay == rd.DebugOverlay.Clipping:
continue
if overlay == rd.DebugOverlay.ClearBeforeDraw or overlay == rd.DebugOverlay.ClearBeforePass:
continue
rdtest.log.success(
"Checking overlay {} with rasterizer discard".format(
str(overlay)))
tex.overlay = overlay
out.SetTextureDisplay(tex)
out.Display()
overlay_id: rd.ResourceId = out.GetDebugOverlayTexID()
rdtest.log.success(
"Overlay {} rendered with rasterizer discard".format(
str(overlay)))
out.Shutdown()
def check_capture(self):
# Jump to the draw
draw = self.find_draw("Draw")
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
# Loop over every test
for test in range(draw.numInstances):
# Pick the pixel
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
4 * test, 0, 0, 0, 0)
# Debug the shader
trace: rd.ShaderDebugTrace = self.controller.DebugPixel(
4 * test, 0, rd.ReplayController.NoPreference,
rd.ReplayController.NoPreference)
last_state: rd.ShaderDebugState = trace.states[-1]
if not rdtest.value_compare(picked.floatValue,
last_state.outputs[0].value.fv[0:4]):
raise rdtest.TestFailureException(
"Test {}: debugged output {} doesn't match actual output {}"
.format(test, last_state.outputs[0].value.fv[0:4],
picked.floatValue))
rdtest.log.success("Test {} matched as expected".format(test))
rdtest.log.success("All tests matched")
def check_capture(self, capture_filename: str,
controller: rd.ReplayController):
self.controller = controller
self.pipeType = self.controller.GetAPIProperties().pipelineType
self.opengl_mode = (self.controller.GetAPIProperties().pipelineType ==
rd.GraphicsAPI.OpenGL)
self.d3d_mode = rd.IsD3D(
self.controller.GetAPIProperties().pipelineType)
failed = False
try:
# First check with the local controller
self.check_capture_with_controller('')
except rdtest.TestFailureException as ex:
rdtest.log.error(str(ex))
failed = True
# Now shut it down
self.controller.Shutdown()
self.controller = None
# Launch a remote server
rdtest.launch_remote_server()
# Wait for it to start
time.sleep(0.5)
ret: Tuple[rd.ResultCode,
rd.RemoteServer] = rd.CreateRemoteServerConnection(
'localhost')
result, remote = ret
if result != rd.ResultCode.Succeeded:
time.sleep(2)
ret: Tuple[rd.ResultCode,
rd.RemoteServer] = rd.CreateRemoteServerConnection(
'localhost')
result, remote = ret
if result != rd.ResultCode.Succeeded:
raise rdtest.TestFailureException(
"Couldn't connect to remote server: {}".format(str(result)))
proxies = remote.LocalProxies()
try:
# Try D3D11 and GL as proxies, D3D12/Vulkan technically don't have proxying implemented even though they
# will be listed in proxies
for api in ['D3D11', 'OpenGL']:
if api not in proxies:
continue
try:
ret: Tuple[rd.ResultCode,
rd.ReplayController] = remote.OpenCapture(
proxies.index(api), capture_filename,
rd.ReplayOptions(), None)
result, self.controller = ret
# Now check with the proxy
self.check_capture_with_controller(api)
except ValueError:
continue
except rdtest.TestFailureException as ex:
rdtest.log.error(str(ex))
failed = True
finally:
remote.CloseCapture(self.controller)
self.controller = None
finally:
remote.ShutdownServerAndConnection()
# Now iterate over all the temp images saved out, load them as captures, and check the texture.
dir_path = rdtest.get_tmp_path('')
was_opengl = self.opengl_mode
# We iterate in filename order, so that dds files get opened before png files.
for file in os.scandir(dir_path):
if '.dds' not in file.name and '.png' not in file.name:
continue
cap = rd.OpenCaptureFile()
result = cap.OpenFile(file.path, 'rdc', None)
if result != rd.ResultCode.Succeeded:
rdtest.log.error("Couldn't open {}".format(file.name))
failed = True
continue
ret: Tuple[rd.ResultCode, rd.ReplayController] = cap.OpenCapture(
rd.ReplayOptions(), None)
result, self.controller = ret
if result != rd.ResultCode.Succeeded:
rdtest.log.error("Couldn't open {}".format(file.name))
failed = True
continue
self.filename = file.name.replace('.dds', '').replace('.png', '')
[a, b] = file.name.replace('.dds',
' (DDS)').replace('.png',
' (PNG)').split('@')
self.controller.SetFrameEvent(
self.controller.GetRootActions()[0].eventId, True)
try:
self.opengl_mode = False
fmt: rd.ResourceFormat = self.controller.GetTextures(
)[0].format
is_compressed = (rd.ResourceFormatType.BC1 <= fmt.type <=
rd.ResourceFormatType.BC7
or fmt.type == rd.ResourceFormatType.EAC
or fmt.type == rd.ResourceFormatType.ETC2
or fmt.type == rd.ResourceFormatType.ASTC
or fmt.type == rd.ResourceFormatType.PVRTC)
# OpenGL saves all non-compressed images to disk with a flip, since that's the expected order for
# most formats. The effect of this is that we should apply the opengl_mode workaround for all files
# *except* compressed textures
if was_opengl and not is_compressed:
self.opengl_mode = True
self.out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check_test(
a, b, Texture_Zoo.TEST_DDS
if '.dds' in file.name else Texture_Zoo.TEST_PNG)
self.out.Shutdown()
self.out = None
rdtest.log.success("{} loaded with the correct data".format(
file.name))
except rdtest.TestFailureException as ex:
rdtest.log.error(str(ex))
failed = True
self.controller.Shutdown()
self.controller = None
if failed:
raise rdtest.TestFailureException(
"Some tests were not as expected")
def check_capture_with_controller(self, proxy_api: str):
self.controller: rd.ReplayController
any_failed = False
if proxy_api != '':
rdtest.log.print('Running with {} local proxy'.format(proxy_api))
self.proxied = True
else:
rdtest.log.print('Running on direct replay')
self.proxied = False
self.out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
for d in self.controller.GetRootActions():
if 'slice tests' in d.customName:
for sub in d.children:
if sub.flags & rd.ActionFlags.Drawcall:
self.controller.SetFrameEvent(sub.eventId, True)
pipe = self.controller.GetPipelineState()
tex_id = pipe.GetReadOnlyResources(
rd.ShaderStage.Pixel)[0].resources[0].resourceId
for mip in [0, 1]:
for sl in [16, 17, 18]:
expected = [0.0, 0.0, 1.0, 1.0]
if sl == 17:
expected = [0.0, 1.0, 0.0, 1.0]
cur_sub = rd.Subresource(mip, sl)
comp_type = rd.CompType.Typeless
# test that pixel picking sees the right things
picked = self.controller.PickPixel(
tex_id, 15, 15, cur_sub, comp_type)
if not rdtest.value_compare(
picked.floatValue, expected):
raise rdtest.TestFailureException(
"Expected to pick {} at slice {} mip {}, got {}"
.format(expected, sl, mip,
picked.floatValue))
rdtest.log.success(
'Picked pixel is correct at slice {} mip {}'
.format(sl, mip))
# Render output texture a three scales - below 100%, 100%, above 100%
tex_display = rd.TextureDisplay()
tex_display.resourceId = tex_id
tex_display.subresource = cur_sub
tex_display.typeCast = comp_type
# convert the unorm values to byte values for comparison
expected = [
int(a * 255) for a in expected[0:3]
]
for scale in [0.9, 1.0, 1.1]:
tex_display.scale = scale
self.out.SetTextureDisplay(tex_display)
self.out.Display()
pixels: bytes = self.out.ReadbackOutputTexture(
)
actual = [int(a) for a in pixels[0:3]]
if not rdtest.value_compare(
actual, expected):
raise rdtest.TestFailureException(
"Expected to display {} at slice {} mip {} scale {}%, got {}"
.format(expected, sl, mip,
int(scale * 100), actual))
rdtest.log.success(
'Displayed pixel is correct at scale {}% in slice {} mip {}'
.format(int(scale * 100), sl, mip))
elif sub.flags & rd.ActionFlags.SetMarker:
rdtest.log.print(
'Checking {} for slice display'.format(
sub.customName))
continue
# Check each region for the tests within
if d.flags & rd.ActionFlags.PushMarker:
name = ''
tests_run = 0
failed = False
# Iterate over actions in this region
for sub in d.children:
sub: rd.ActionDescription
if sub.flags & rd.ActionFlags.SetMarker:
name = sub.customName
# Check this action
if sub.flags & rd.ActionFlags.Drawcall:
tests_run = tests_run + 1
try:
# Set this event as current
self.controller.SetFrameEvent(sub.eventId, True)
self.filename = (d.customName + '@' +
name).replace('->', '_')
self.check_test(d.customName, name,
Texture_Zoo.TEST_CAPTURE)
except rdtest.TestFailureException as ex:
failed = any_failed = True
rdtest.log.error(str(ex))
if not failed:
rdtest.log.success(
"All {} texture tests for {} are OK".format(
tests_run, d.customName))
self.out.Shutdown()
self.out = None
if not any_failed:
if proxy_api != '':
rdtest.log.success(
'All textures are OK with {} as local proxy'.format(
proxy_api))
else:
rdtest.log.success("All textures are OK on direct replay")
else:
raise rdtest.TestFailureException(
"Some tests were not as expected")
def check_capture(self):
self.check_final_backbuffer()
for level in ["Primary", "Secondary"]:
rdtest.log.print("Checking {} indirect calls".format(level))
dispatches = self.find_draw("{}: Dispatches".format(level))
# Set up a ReplayOutput and TextureSave for quickly testing the drawcall highlight overlay
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(), rd.ReplayOutputType.Texture)
self.check(out is not None)
out.SetDimensions(100, 100)
tex = rd.TextureDisplay()
tex.overlay = rd.DebugOverlay.Drawcall
save_data = rd.TextureSave()
save_data.destType = rd.FileType.PNG
# Rewind to the start of the capture
draw: rd.DrawcallDescription = dispatches.children[0]
while draw.previous is not None:
draw = draw.previous
# Ensure we can select all draws
while draw is not None:
self.controller.SetFrameEvent(draw.eventId, False)
draw = draw.next
rdtest.log.success("Selected all {} draws".format(level))
self.check(dispatches and len(dispatches.children) == 3)
self.check(dispatches.children[0].dispatchDimension == [0, 0, 0])
self.check(dispatches.children[1].dispatchDimension == [1, 1, 1])
self.check(dispatches.children[2].dispatchDimension == [3, 4, 5])
rdtest.log.success(
"{} Indirect dispatches are the correct dimensions".format(
level))
self.controller.SetFrameEvent(dispatches.children[2].eventId,
False)
pipe: rd.PipeState = self.controller.GetPipelineState()
ssbo: rd.BoundResource = pipe.GetReadWriteResources(
rd.ShaderStage.Compute)[0].resources[0]
data: bytes = self.controller.GetBufferData(ssbo.resourceId, 0, 0)
rdtest.log.print("Got {} bytes of uints".format(len(data)))
uints = [
struct.unpack_from('=4L', data, offs)
for offs in range(0, len(data), 16)
]
for x in range(0, 6): # 3 groups of 2 threads each
for y in range(0, 8): # 3 groups of 2 threads each
for z in range(0, 5): # 5 groups of 1 thread each
idx = 100 + z * 8 * 6 + y * 6 + x
if not rdtest.value_compare(uints[idx],
[x, y, z, 12345]):
raise rdtest.TestFailureException(
'expected thread index data @ {},{},{}: {} is not as expected: {}'
.format(x, y, z, uints[idx], [x, y, z, 12345]))
rdtest.log.success(
"Dispatched buffer contents are as expected for {}".format(
level))
empties = self.find_draw("{}: Empty draws".format(level))
self.check(empties and len(empties.children) == 2)
draw: rd.DrawcallDescription
for draw in empties.children:
self.check(draw.numIndices == 0)
self.check(draw.numInstances == 0)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have empty PostVS
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut, 0, 1)
self.check(len(postvs_data) == 0)
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} empty draws are empty".format(level))
indirects = self.find_draw("{}: Indirect draws".format(level))
self.check('vkCmdDrawIndirect' in indirects.children[0].name)
self.check(
'vkCmdDrawIndexedIndirect' in indirects.children[1].name)
self.check(len(indirects.children[1].children) == 2)
rdtest.log.success(
"Correct number of {} indirect draws".format(level))
# vkCmdDrawIndirect(...)
draw = indirects.children[0]
self.check(draw.numIndices == 3)
self.check(draw.numInstances == 2)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut)
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex.gl_Position': [-0.8, -0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex.gl_Position': [-0.7, -0.8, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex.gl_Position': [-0.6, -0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} {} is as expected".format(level, draw.name))
# vkCmdDrawIndexedIndirect[0](...)
draw = indirects.children[1].children[0]
self.check(draw.numIndices == 3)
self.check(draw.numInstances == 3)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex.gl_Position': [-0.6, -0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex.gl_Position': [-0.5, -0.8, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex.gl_Position': [-0.4, -0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} {} is as expected".format(level, draw.name))
# vkCmdDrawIndexedIndirect[1](...)
draw = indirects.children[1].children[1]
self.check(draw.numIndices == 6)
self.check(draw.numInstances == 2)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut)
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex.gl_Position': [-0.4, -0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex.gl_Position': [-0.3, -0.8, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex.gl_Position': [-0.2, -0.8, 0.0, 1.0]
},
3: {
'vtx': 3,
'idx': 3,
'gl_PerVertex.gl_Position': [-0.1, -0.5, 0.0, 1.0]
},
4: {
'vtx': 4,
'idx': 4,
'gl_PerVertex.gl_Position': [0.0, -0.8, 0.0, 1.0]
},
5: {
'vtx': 5,
'idx': 5,
'gl_PerVertex.gl_Position': [0.1, -0.8, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} {} is as expected".format(level, draw.name))
indirect_count_root = self.find_draw(
"{}: KHR_draw_indirect_count".format(level))
if indirect_count_root is not None:
self.check(indirect_count_root.children[0].name ==
'{}: Empty count draws'.format(level))
self.check(indirect_count_root.children[1].name ==
'{}: Indirect count draws'.format(level))
empties = indirect_count_root.children[0]
self.check(empties and len(empties.children) == 2)
draw: rd.DrawcallDescription
for draw in empties.children:
self.check(draw.numIndices == 0)
self.check(draw.numInstances == 0)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have empty PostVS
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut, 0, 1)
self.check(len(postvs_data) == 0)
self.check_overlay(draw.eventId, out, tex, save_data)
# vkCmdDrawIndirectCountKHR
draw_indirect = indirect_count_root.children[1].children[0]
self.check(draw_indirect and len(draw_indirect.children) == 1)
# vkCmdDrawIndirectCountKHR[0]
draw = draw_indirect.children[0]
self.check(draw.numIndices == 3)
self.check(draw.numInstances == 4)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex.gl_Position': [-0.8, 0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex.gl_Position': [-0.7, 0.2, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex.gl_Position': [-0.6, 0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} {} is as expected".format(
level, draw.name))
# vkCmdDrawIndexedIndirectCountKHR
draw_indirect = indirect_count_root.children[1].children[1]
self.check(draw_indirect and len(draw_indirect.children) == 3)
# vkCmdDrawIndirectCountKHR[0]
draw = draw_indirect.children[0]
self.check(draw.numIndices == 3)
self.check(draw.numInstances == 1)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex.gl_Position': [-0.6, 0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex.gl_Position': [-0.5, 0.2, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex.gl_Position': [-0.4, 0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} {} is as expected".format(
level, draw.name))
# vkCmdDrawIndirectCountKHR[1]
draw = draw_indirect.children[1]
self.check(draw.numIndices == 0)
self.check(draw.numInstances == 0)
self.controller.SetFrameEvent(draw.eventId, False)
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut)
self.check(len(postvs_data) == 0)
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} {} is as expected".format(
level, draw.name))
# vkCmdDrawIndirectCountKHR[2]
draw = draw_indirect.children[2]
self.check(draw.numIndices == 6)
self.check(draw.numInstances == 2)
self.controller.SetFrameEvent(draw.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex.gl_Position': [-0.4, 0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex.gl_Position': [-0.3, 0.2, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex.gl_Position': [-0.2, 0.2, 0.0, 1.0]
},
3: {
'vtx': 3,
'idx': 3,
'gl_PerVertex.gl_Position': [-0.1, 0.5, 0.0, 1.0]
},
4: {
'vtx': 4,
'idx': 4,
'gl_PerVertex.gl_Position': [0.0, 0.2, 0.0, 1.0]
},
5: {
'vtx': 5,
'idx': 5,
'gl_PerVertex.gl_Position': [0.1, 0.2, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay(draw.eventId, out, tex, save_data)
rdtest.log.success("{} {} is as expected".format(
level, draw.name))
else:
rdtest.log.print("KHR_draw_indirect_count not tested")
def check_capture(self):
action = self.find_action("Color Draw")
self.check(action is not None)
action = action.next
self.controller.SetFrameEvent(action.eventId, False)
pipe: rd.PipeState = self.controller.GetPipelineState()
self.check_pixel_value(pipe.GetOutputTargets()[0].resourceId, 0.5, 0.5,
[0.0, 1.0, 0.0, 1.0])
rdtest.log.success("Captured loaded with color as expected")
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut, 0,
action.numIndices)
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'SV_POSITION': [-0.5, -0.5, 0.0, 1.0],
'COLOR': [0.0, 1.0, 0.0, 1.0],
'TEXCOORD': [0.0, 0.0],
},
1: {
'vtx': 1,
'idx': 1,
'SV_POSITION': [0.0, 0.5, 0.0, 1.0],
'COLOR': [0.0, 1.0, 0.0, 1.0],
'TEXCOORD': [0.0, 1.0],
},
2: {
'vtx': 2,
'idx': 2,
'SV_POSITION': [0.5, -0.5, 0.0, 1.0],
'COLOR': [0.0, 1.0, 0.0, 1.0],
'TEXCOORD': [1.0, 0.0],
},
}
self.check_mesh_data(postvs_ref, postvs_data)
rdtest.log.success("Mesh data is correct")
tex = rd.TextureDisplay()
tex.overlay = rd.DebugOverlay.Drawcall
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
out.SetTextureDisplay(tex)
out.Display()
overlay_id = out.GetDebugOverlayTexID()
v = pipe.GetViewport(0)
self.check_pixel_value(overlay_id,
int(0.5 * v.width),
int(0.5 * v.height), [0.8, 0.1, 0.8, 1.0],
eps=1.0 / 256.0)
out.Shutdown()
res = self.get_resource_by_name("Sampler Heap")
sdfile = self.controller.GetStructuredFile()
chunk = sdfile.chunks[res.initialisationChunks[-1]]
desc1234 = chunk.GetChild(2).GetChild(1234).GetChild(3)
rdtest.log.comment('desc1234: ' + desc1234.name)
# filter
self.check(
desc1234.GetChild(0).AsString() == 'D3D12_FILTER_ANISOTROPIC')
self.check(desc1234.GetChild(0).AsInt() == 0x55)
# wrapping
self.check(
desc1234.GetChild(1).AsString() ==
'D3D12_TEXTURE_ADDRESS_MODE_BORDER')
self.check(desc1234.GetChild(1).AsInt() == 4)
# MaxAnisotropy
self.check(desc1234.GetChild(1).AsInt() == 4)
# MinLod
self.check(desc1234.GetChild(8).AsFloat() == 1.5)
rdtest.log.success("Overlay color is as expected")
def check_capture(self):
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
pipe: rd.PipeState = self.controller.GetPipelineState()
stage = rd.ShaderStage.Pixel
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 0, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetGraphicsPipelineObject(), pipe.GetShader(stage),
pipe.GetShaderEntryPoint(stage), 0, cbuf.resourceId,
cbuf.byteOffset))
# For more detailed reference for the below checks, see the commented definition of the cbuffer
# in the shader source code in the demo itself
# float4 a;
var_check.check('a').rows(1).cols(4).value([0.0, 1.0, 2.0, 3.0])
# float3 b;
var_check.check('b').rows(1).cols(3).value([4.0, 5.0, 6.0])
# float2 c; float2 d;
var_check.check('c').rows(1).cols(2).value([8.0, 9.0])
var_check.check('d').rows(1).cols(2).value([10.0, 11.0])
# float e; float3 f;
var_check.check('e').rows(1).cols(1).value([12.0])
var_check.check('f').rows(1).cols(3).value([13.0, 14.0, 15.0])
# float g; float2 h; float i;
var_check.check('g').rows(1).cols(1).value([16.0])
var_check.check('h').rows(1).cols(2).value([17.0, 18.0])
var_check.check('i').rows(1).cols(1).value([19.0])
# float j; float2 k;
var_check.check('j').rows(1).cols(1).value([20.0])
var_check.check('k').rows(1).cols(2).value([21.0, 22.0])
# float2 l; float m;
var_check.check('l').rows(1).cols(2).value([24.0, 25.0])
var_check.check('m').rows(1).cols(1).value([26.0])
# float n[4];
var_check.check('n').rows(0).cols(0).arraySize(4).members({
0:
lambda x: x.rows(1).cols(1).value([28.0]),
1:
lambda x: x.rows(1).cols(1).value([32.0]),
2:
lambda x: x.rows(1).cols(1).value([36.0]),
3:
lambda x: x.rows(1).cols(1).value([40.0]),
})
# float4 dummy1;
var_check.check('dummy1')
# float o[4];
var_check.check('o').rows(0).cols(0).arraySize(4).members({
0:
lambda x: x.rows(1).cols(1).value([48.0]),
1:
lambda x: x.rows(1).cols(1).value([52.0]),
2:
lambda x: x.rows(1).cols(1).value([56.0]),
3:
lambda x: x.rows(1).cols(1).value([60.0]),
})
# float p;
var_check.check('p').rows(1).cols(1).value([61.0])
# float4 dummy2;
var_check.check('dummy2')
# float4 dummygl1;
# float4 dummygl2;
var_check.check('dummygl1')
var_check.check('dummygl2')
# column_major float4x4 q;
var_check.check('q').rows(4).cols(4).column_major().value([
76.0, 80.0, 84.0, 88.0, 77.0, 81.0, 85.0, 89.0, 78.0, 82.0, 86.0,
90.0, 79.0, 83.0, 87.0, 91.0
])
# row_major float4x4 r;
var_check.check('r').rows(4).cols(4).row_major().value([
92.0, 93.0, 94.0, 95.0, 96.0, 97.0, 98.0, 99.0, 100.0, 101.0,
102.0, 103.0, 104.0, 105.0, 106.0, 107.0
])
# column_major float3x4 s;
var_check.check('s').rows(3).cols(4).column_major().value([
108.0, 112.0, 116.0, 120.0, 109.0, 113.0, 117.0, 121.0, 110.0,
114.0, 118.0, 122.0
])
# float4 dummy3;
var_check.check('dummy3')
# row_major float3x4 t;
var_check.check('t').rows(3).cols(4).row_major().value([
128.0, 129.0, 130.0, 131.0, 132.0, 133.0, 134.0, 135.0, 136.0,
137.0, 138.0, 139.0
])
# float4 dummy4;
var_check.check('dummy4')
# column_major float2x3 u;
var_check.check('u').rows(2).cols(3).column_major().value(
[144.0, 148.0, 152.0, 145.0, 149.0, 153.0])
# float4 dummy5;
var_check.check('dummy5')
# row_major float2x3 v;
var_check.check('v').rows(2).cols(3).row_major().value(
[160.0, 161.0, 162.0, 164.0, 165.0, 166.0])
# float4 dummy6;
var_check.check('dummy6')
# column_major float2x2 w;
var_check.check('w').rows(2).cols(2).column_major().value(
[172.0, 176.0, 173.0, 177.0])
# float4 dummy7;
var_check.check('dummy7')
# row_major float2x2 x;
var_check.check('x').rows(2).cols(2).row_major().value(
[184.0, 185.0, 188.0, 189.0])
# float4 dummy8;
var_check.check('dummy8')
# row_major float2x2 y;
var_check.check('y').rows(2).cols(2).row_major().value(
[196.0, 197.0, 200.0, 201.0])
# float z;
var_check.check('z').rows(1).cols(1).value([202.0])
# float4 gldummy3;
var_check.check('gldummy3')
# row_major float4x1 aa;
var_check.check('aa').rows(4).cols(1).value(
[208.0, 212.0, 216.0, 220.0])
# column_major float4x1 ab;
var_check.check('ab').rows(4).cols(1).value(
[224.0, 225.0, 226.0, 227.0])
# float4 multiarray[3][2];
# this is flattened to just multiarray[6]
var_check.check('multiarray').rows(0).cols(0).arraySize(6).members({
0:
lambda x: x.rows(1).cols(4).value([228.0, 229.0, 230.0, 231.0]),
1:
lambda x: x.rows(1).cols(4).value([232.0, 233.0, 234.0, 235.0]),
2:
lambda x: x.rows(1).cols(4).value([236.0, 237.0, 238.0, 239.0]),
3:
lambda x: x.rows(1).cols(4).value([240.0, 241.0, 242.0, 243.0]),
4:
lambda x: x.rows(1).cols(4).value([244.0, 245.0, 246.0, 247.0]),
5:
lambda x: x.rows(1).cols(4).value([248.0, 249.0, 250.0, 251.0]),
})
# struct float3_1 { float3 a; float b; };
# struct nested { float3_1 a; float4 b[4]; float3_1 c[4]; };
# nested structa[2];
var_check.check('structa').rows(0).cols(0).arraySize(2).members({
# structa[0]
0:
lambda s: s.rows(0).cols(0).structSize(3).members({
'a':
lambda x: x.rows(0).cols(0).structSize(2).members({
'a':
lambda y: y.rows(1).cols(3).value([252.0, 253.0, 254.0]),
'b':
lambda y: y.rows(1).cols(1).value([255.0]),
}),
'b':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(1).cols(4).value(
[256.0, 257.0, 258.0, 259.0]),
1:
lambda y: y.rows(1).cols(4).value(
[260.0, 261.0, 262.0, 263.0]),
2:
lambda y: y.rows(1).cols(4).value(
[264.0, 265.0, 266.0, 267.0]),
3:
lambda y: y.rows(1).cols(4).value(
[268.0, 269.0, 270.0, 271.0]),
}),
'c':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[272.0, 273.0, 274.0]),
'b':
lambda z: z.rows(1).cols(1).value([275.0]),
}),
1:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[276.0, 277.0, 278.0]),
'b':
lambda z: z.rows(1).cols(1).value([279.0]),
}),
2:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[280.0, 281.0, 282.0]),
'b':
lambda z: z.rows(1).cols(1).value([283.0]),
}),
3:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[284.0, 285.0, 286.0]),
'b':
lambda z: z.rows(1).cols(1).value([287.0]),
}),
}),
}),
# structa[1]
1:
lambda s: s.rows(0).cols(0).structSize(3).members({
'a':
lambda x: x.rows(0).cols(0).structSize(2).members({
'a':
lambda y: y.rows(1).cols(3).value([288.0, 289.0, 290.0]),
'b':
lambda y: y.rows(1).cols(1).value([291.0]),
}),
'b':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(1).cols(4).value(
[292.0, 293.0, 294.0, 295.0]),
1:
lambda y: y.rows(1).cols(4).value(
[296.0, 297.0, 298.0, 299.0]),
2:
lambda y: y.rows(1).cols(4).value(
[300.0, 301.0, 302.0, 303.0]),
3:
lambda y: y.rows(1).cols(4).value(
[304.0, 305.0, 306.0, 307.0]),
}),
'c':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[308.0, 309.0, 310.0]),
'b':
lambda z: z.rows(1).cols(1).value([311.0]),
}),
1:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[312.0, 313.0, 314.0]),
'b':
lambda z: z.rows(1).cols(1).value([315.0]),
}),
2:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[316.0, 317.0, 318.0]),
'b':
lambda z: z.rows(1).cols(1).value([319.0]),
}),
3:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[320.0, 321.0, 322.0]),
'b':
lambda z: z.rows(1).cols(1).value([323.0]),
}),
}),
}),
})
# column_major float3x2 ac;
var_check.check('ac').rows(3).cols(2).column_major().value(
[324.0, 328.0, 325.0, 329.0, 326.0, 330.0])
# row_major float3x2 ad;
var_check.check('ad').rows(3).cols(2).row_major().value(
[332.0, 333.0, 336.0, 337.0, 340.0, 341.0])
# column_major float3x2 ae[2];
var_check.check('ae').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(3).cols(2).column_major().value(
[344.0, 348.0, 345.0, 349.0, 346.0, 350.0]),
1:
lambda x: x.rows(3).cols(2).column_major().value(
[352.0, 356.0, 353.0, 357.0, 354.0, 358.0]),
})
# row_major float3x2 af[2];
var_check.check('af').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(3).cols(2).row_major().value(
[360.0, 361.0, 364.0, 365.0, 368.0, 369.0]),
1:
lambda x: x.rows(3).cols(2).row_major().value(
[372.0, 373.0, 376.0, 377.0, 380.0, 381.0]),
})
# float2 dummy9;
var_check.check('dummy9')
# float2 dummy10;
var_check.check('dummy10')
# row_major float2x2 ag;
var_check.check('ag').rows(2).cols(2).row_major().value(
[388.0, 389.0, 392.0, 393.0])
# float2 dummy11;
var_check.check('dummy11')
# float2 dummy12;
var_check.check('dummy12')
# column_major float2x2 ah;
var_check.check('ah').rows(2).cols(2).column_major().value(
[400.0, 404.0, 401.0, 405.0])
# row_major float2x2 ai[2];
var_check.check('ai').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(2).cols(2).row_major().value(
[408.0, 409.0, 412.0, 413.0]),
1:
lambda x: x.rows(2).cols(2).row_major().value(
[416.0, 417.0, 420.0, 421.0]),
})
# column_major float2x2 aj[2];
var_check.check('aj').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(2).cols(2).column_major().value(
[424.0, 428.0, 425.0, 429.0]),
1:
lambda x: x.rows(2).cols(2).column_major().value(
[432.0, 436.0, 433.0, 437.0]),
})
# float4 test;
var_check.check('test').rows(1).cols(4).value(
[440.0, 441.0, 442.0, 443.0])
var_check.done()
rdtest.log.success("CBuffer variables are as expected")
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
texdetails = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2),
int(texdetails.height / 2), 0, 0,
0)
if not rdtest.value_compare(picked.floatValue,
[440.1, 441.0, 442.0, 443.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("Picked value is as expected")
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 1, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetGraphicsPipelineObject(), pipe.GetShader(stage),
pipe.GetShaderEntryPoint(stage), 1, cbuf.resourceId,
cbuf.byteOffset))
# float4 zero;
var_check.check('root_zero').rows(1).cols(4).value(
[0.0, 0.0, 0.0, 0.0])
# float4 a;
var_check.check('root_a').rows(1).cols(4).value(
[10.0, 20.0, 30.0, 40.0])
# float2 b;
var_check.check('root_b').rows(1).cols(2).value([50.0, 60.0])
# float2 c;
var_check.check('root_c').rows(1).cols(2).value([70.0, 80.0])
# float3_1 d;
var_check.check('root_d').rows(0).cols(0).structSize(2).members({
'a':
lambda y: y.rows(1).cols(3).value([90.0, 100.0, 110.0]),
'b':
lambda y: y.rows(1).cols(1).value([120.0]),
})
var_check.done()
rdtest.log.success("Root signature variables are as expected")
out.Shutdown()
def check_capture(self):
self.check_final_backbuffer()
out: rd.ReplayOutput = self.controller.CreateOutput(rd.CreateHeadlessWindowingData(), rd.ReplayOutputType.Texture)
self.check(out is not None)
out.SetDimensions(100, 100)
test_marker: rd.DrawcallDescription = self.find_draw("Test")
self.controller.SetFrameEvent(test_marker.next.eventId, True)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
for overlay in rd.DebugOverlay:
if overlay == rd.DebugOverlay.NoOverlay:
continue
# These overlays are just displaymodes really, not actually separate overlays
if overlay == rd.DebugOverlay.NaN or overlay == rd.DebugOverlay.Clipping:
continue
# Unfortunately line-fill rendering seems to vary too much by IHV, so gives inconsistent results
if overlay == rd.DebugOverlay.Wireframe:
continue
tex.overlay = overlay
out.SetTextureDisplay(tex)
overlay_path = rdtest.get_tmp_path(str(overlay) + '.png')
ref_path = self.get_ref_path(str(overlay) + '.png')
save_data = rd.TextureSave()
save_data.resourceId = out.GetDebugOverlayTexID()
save_data.destType = rd.FileType.PNG
save_data.comp.blackPoint = 0.0
save_data.comp.whitePoint = 1.0
tolerance = 2
# These overlays return grayscale above 1, so rescale to an expected range.
if (overlay == rd.DebugOverlay.QuadOverdrawDraw or overlay == rd.DebugOverlay.QuadOverdrawPass or
overlay == rd.DebugOverlay.TriangleSizeDraw or overlay == rd.DebugOverlay.TriangleSizePass):
save_data.comp.whitePoint = 10.0
# These overlays modify the underlying texture, so we need to save it out instead of the overlay
if overlay == rd.DebugOverlay.ClearBeforeDraw or overlay == rd.DebugOverlay.ClearBeforePass:
save_data.resourceId = tex.resourceId
self.controller.SaveTexture(save_data, overlay_path)
if not rdtest.image_compare(overlay_path, ref_path, tolerance):
raise rdtest.TestFailureException("Reference and output image differ for overlay {}".format(str(overlay)), overlay_path, ref_path)
rdtest.log.success("Reference and output image are identical for {}".format(str(overlay)))
save_data = rd.TextureSave()
save_data.resourceId = pipe.GetDepthTarget().resourceId
save_data.destType = rd.FileType.PNG
save_data.channelExtract = 0
tmp_path = rdtest.get_tmp_path('depth.png')
ref_path = self.get_ref_path('depth.png')
self.controller.SaveTexture(save_data, tmp_path)
if not rdtest.image_compare(tmp_path, ref_path):
raise rdtest.TestFailureException("Reference and output image differ for depth {}", tmp_path, ref_path)
rdtest.log.success("Reference and output image are identical for depth")
save_data.channelExtract = 1
tmp_path = rdtest.get_tmp_path('stencil.png')
ref_path = self.get_ref_path('stencil.png')
self.controller.SaveTexture(save_data, tmp_path)
if not rdtest.image_compare(tmp_path, ref_path):
raise rdtest.TestFailureException("Reference and output image differ for stencil {}", tmp_path, ref_path)
rdtest.log.success("Reference and output image are identical for stencil")
out.Shutdown()
def check_capture(self):
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(rd.CreateHeadlessWindowingData(100, 100), rd.ReplayOutputType.Texture)
self.check(out is not None)
ref = {
0: {
'SNorm': [1.0, -1.0, 1.0, -1.0],
'UNorm': [12345.0/65535.0, 6789.0/65535.0, 1234.0/65535.0, 567.0/65535.0],
'UScaled': [12345.0, 6789.0, 1234.0, 567.0],
'UInt': [12345, 6789, 1234, 567],
'Double': [9.8765432109, -5.6789012345],
'Array[0]': [1.0, 2.0],
'Array[1]': [3.0, 4.0],
'Array[2]': [5.0, 6.0],
'Matrix:row0': [7.0, 8.0],
'Matrix:row1': [9.0, 10.0],
},
1: {
'SNorm': [32766.0/32767.0, -32766.0/32767.0, 16000.0/32767.0, -16000.0/32767.0],
'UNorm': [56.0/65535.0, 7890.0/65535.0, 123.0/65535.0, 4567.0/65535.0],
'UScaled': [56.0, 7890.0, 123.0, 4567.0],
'UInt': [56, 7890, 123, 4567],
'Double': [-7.89012345678, 6.54321098765],
'Array[0]': [11.0, 12.0],
'Array[1]': [13.0, 14.0],
'Array[2]': [15.0, 16.0],
'Matrix:row0': [17.0, 18.0],
'Matrix:row1': [19.0, 20.0],
},
2: {
'SNorm': [5.0/32767.0, -5.0/32767.0, 0.0, 0.0],
'UNorm': [8765.0/65535.0, 43210.0/65535.0, 987.0/65535.0, 65432.0/65535.0],
'UScaled': [8765.0, 43210.0, 987.0, 65432.0],
'UInt': [8765, 43210, 987, 65432],
'Double': [0.1234567890123, 4.5678901234],
'Array[0]': [21.0, 22.0],
'Array[1]': [23.0, 24.0],
'Array[2]': [25.0, 26.0],
'Matrix:row0': [27.0, 28.0],
'Matrix:row1': [29.0, 30.0],
},
}
# Copy the ref values and prepend 'In'
in_ref = {}
for idx in ref:
in_ref[idx] = {}
for key in ref[idx]:
in_ref[idx]['In' + key] = ref[idx][key]
# Copy the ref values and prepend 'Out'
out_ref = {}
for idx in ref:
out_ref[idx] = {}
for key in ref[idx]:
out_ref[idx]['Out' + key] = ref[idx][key]
vsout_ref = copy.deepcopy(out_ref)
gsout_ref = out_ref
vsout_ref[0]['gl_PerVertex.gl_Position'] = [-0.5, 0.5, 0.0, 1.0]
gsout_ref[0]['gl_PerVertex.gl_Position'] = [0.5, -0.5, 0.4, 1.2]
vsout_ref[1]['gl_PerVertex.gl_Position'] = [0.0, -0.5, 0.0, 1.0]
gsout_ref[1]['gl_PerVertex.gl_Position'] = [-0.5, 0.0, 0.4, 1.2]
vsout_ref[2]['gl_PerVertex.gl_Position'] = [0.5, 0.5, 0.0, 1.0]
gsout_ref[2]['gl_PerVertex.gl_Position'] = [0.5, 0.5, 0.4, 1.2]
self.check_mesh_data(in_ref, self.get_vsin(draw))
rdtest.log.success("Vertex input data is as expected")
self.check_mesh_data(vsout_ref, self.get_postvs(rd.MeshDataStage.VSOut))
rdtest.log.success("Vertex output data is as expected")
# This is optional to account for drivers without XFB
postgs_data = self.get_postvs(rd.MeshDataStage.GSOut)
if len(postgs_data) > 0:
self.check_mesh_data(gsout_ref, postgs_data)
rdtest.log.success("Geometry output data is as expected")
else:
rdtest.log.print("Geometry output not tested")
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
texdetails = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2), int(texdetails.height / 2), 0, 0, 0)
if not rdtest.value_compare(picked.floatValue, [0.0, 1.0, 0.0, 1.0]):
raise rdtest.TestFailureException("Picked value {} doesn't match expectation".format(picked.floatValue))
rdtest.log.success("Triangle picked value is as expected")
out.Shutdown()
def check_capture(self):
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
test_marker: rd.DrawcallDescription = self.find_draw("Test")
self.controller.SetFrameEvent(test_marker.next.eventId, True)
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
# Check the actual output is as expected first.
# Background around the outside
self.check_pixel_value(tex.resourceId, 0.1, 0.1, [0.2, 0.2, 0.2, 1.0])
self.check_pixel_value(tex.resourceId, 0.8, 0.1, [0.2, 0.2, 0.2, 1.0])
self.check_pixel_value(tex.resourceId, 0.5, 0.95, [0.2, 0.2, 0.2, 1.0])
# Large dark grey triangle
self.check_pixel_value(tex.resourceId, 0.5, 0.1, [0.1, 0.1, 0.1, 1.0])
self.check_pixel_value(tex.resourceId, 0.5, 0.9, [0.1, 0.1, 0.1, 1.0])
self.check_pixel_value(tex.resourceId, 0.2, 0.9, [0.1, 0.1, 0.1, 1.0])
self.check_pixel_value(tex.resourceId, 0.8, 0.9, [0.1, 0.1, 0.1, 1.0])
# Red upper half triangle
self.check_pixel_value(tex.resourceId, 0.3, 0.4, [1.0, 0.0, 0.0, 1.0])
# Blue lower half triangle
self.check_pixel_value(tex.resourceId, 0.3, 0.6, [0.0, 0.0, 1.0, 1.0])
# Floating clipped triangle
self.check_pixel_value(tex.resourceId, 335, 140, [0.0, 0.0, 0.0, 1.0])
self.check_pixel_value(tex.resourceId, 340, 140, [0.2, 0.2, 0.2, 1.0])
# Triangle size triangles
self.check_pixel_value(tex.resourceId, 200, 51, [1.0, 0.5, 1.0, 1.0])
self.check_pixel_value(tex.resourceId, 200, 65, [1.0, 1.0, 0.0, 1.0])
self.check_pixel_value(tex.resourceId, 200, 79, [0.0, 1.0, 1.0, 1.0])
self.check_pixel_value(tex.resourceId, 200, 93, [0.0, 1.0, 0.0, 1.0])
for overlay in rd.DebugOverlay:
if overlay == rd.DebugOverlay.NoOverlay:
continue
# These overlays are just displaymodes really, not actually separate overlays
if overlay == rd.DebugOverlay.NaN or overlay == rd.DebugOverlay.Clipping:
continue
# Unfortunately line-fill rendering seems to vary too much by IHV, so gives inconsistent results
if overlay == rd.DebugOverlay.Wireframe:
continue
tex.overlay = overlay
out.SetTextureDisplay(tex)
overlay_path = rdtest.get_tmp_path(str(overlay) + '.png')
ref_path = self.get_ref_path(str(overlay) + '.png')
save_data = rd.TextureSave()
save_data.resourceId = out.GetDebugOverlayTexID()
save_data.destType = rd.FileType.PNG
save_data.typeCast = rd.CompType.Typeless
save_data.comp.blackPoint = 0.0
save_data.comp.whitePoint = 1.0
tolerance = 2
# These overlays return grayscale above 1, so rescale to an expected range.
if (overlay == rd.DebugOverlay.QuadOverdrawDraw
or overlay == rd.DebugOverlay.QuadOverdrawPass
or overlay == rd.DebugOverlay.TriangleSizeDraw
or overlay == rd.DebugOverlay.TriangleSizePass):
save_data.comp.whitePoint = 10.0
# These overlays modify the underlying texture, so we need to save it out instead of the overlay
if overlay == rd.DebugOverlay.ClearBeforeDraw or overlay == rd.DebugOverlay.ClearBeforePass:
save_data.resourceId = tex.resourceId
save_data.typeCast = rd.CompType.UNormSRGB
self.controller.SaveTexture(save_data, overlay_path)
if not rdtest.png_compare(overlay_path, ref_path, tolerance):
raise rdtest.TestFailureException(
"Reference and output image differ for overlay {}".format(
str(overlay)), overlay_path, ref_path)
rdtest.log.success(
"Reference and output image are identical for {}".format(
str(overlay)))
save_data = rd.TextureSave()
save_data.resourceId = pipe.GetDepthTarget().resourceId
save_data.destType = rd.FileType.PNG
save_data.channelExtract = 0
tmp_path = rdtest.get_tmp_path('depth.png')
ref_path = self.get_ref_path('depth.png')
self.controller.SaveTexture(save_data, tmp_path)
if not rdtest.png_compare(tmp_path, ref_path):
raise rdtest.TestFailureException(
"Reference and output image differ for depth {}", tmp_path,
ref_path)
rdtest.log.success(
"Reference and output image are identical for depth")
save_data.channelExtract = 1
tmp_path = rdtest.get_tmp_path('stencil.png')
ref_path = self.get_ref_path('stencil.png')
self.controller.SaveTexture(save_data, tmp_path)
if not rdtest.png_compare(tmp_path, ref_path):
raise rdtest.TestFailureException(
"Reference and output image differ for stencil {}", tmp_path,
ref_path)
rdtest.log.success(
"Reference and output image are identical for stencil")
self.check_clearbeforedraw_depth(out, pipe.GetDepthTarget().resourceId)
out.Shutdown()
def check_capture_with_controller(self, proxy_api: str):
any_failed = False
if proxy_api != '':
rdtest.log.print('Running with {} local proxy'.format(proxy_api))
self.proxied = True
else:
rdtest.log.print('Running on direct replay')
self.proxied = False
self.out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
for d in self.controller.GetDrawcalls():
# Check each region for the tests within
if d.flags & rd.DrawFlags.PushMarker:
name = ''
tests_run = 0
failed = False
# Iterate over drawcalls in this region
for sub in d.children:
sub: rd.DrawcallDescription
if sub.flags & rd.DrawFlags.SetMarker:
name = sub.name
# Check this draw
if sub.flags & rd.DrawFlags.Drawcall:
tests_run = tests_run + 1
try:
# Set this event as current
self.controller.SetFrameEvent(sub.eventId, True)
self.filename = (d.name + '@' + name).replace(
'->', '_')
self.check_test(d.name, name,
Texture_Zoo.TEST_CAPTURE)
except rdtest.TestFailureException as ex:
failed = any_failed = True
rdtest.log.error(str(ex))
if not failed:
rdtest.log.success(
"All {} texture tests for {} are OK".format(
tests_run, d.name))
self.out.Shutdown()
self.out = None
if not any_failed:
if proxy_api != '':
rdtest.log.success(
'All textures are OK with {} as local proxy'.format(
proxy_api))
else:
rdtest.log.success("All textures are OK on direct replay")
else:
raise rdtest.TestFailureException(
"Some tests were not as expected")
def check_capture(self):
id = self.get_last_draw().copyDestination
tex_details = self.get_texture(id)
self.controller.SetFrameEvent(self.get_last_draw().eventId, True)
data = self.controller.GetTextureData(id, rd.Subresource(0, 0, 0))
first_pixel = struct.unpack_from("BBBB", data, 0)
val = [255, 0, 255, 255]
if not rdtest.value_compare(first_pixel, val):
raise rdtest.TestFailureException(
"First pixel should be clear color {}, not {}".format(
val, first_pixel))
magic_pixel = struct.unpack_from("BBBB", data,
(50 * tex_details.width + 320) * 4)
# allow 127 or 128 for alpha
val = [0, 0, 255, magic_pixel[3]]
if not rdtest.value_compare(magic_pixel,
val) or magic_pixel[3] not in [127, 128]:
raise rdtest.TestFailureException(
"Pixel @ 320,50 should be blue: {}, not {}".format(
val, magic_pixel))
rdtest.log.success("Decoded pixels from texture data are correct")
img_path = rdtest.get_tmp_path('preserved_alpha.png')
self.controller.SetFrameEvent(self.get_last_draw().eventId, True)
save_data = rd.TextureSave()
save_data.resourceId = id
save_data.destType = rd.FileType.PNG
save_data.alpha = rd.AlphaMapping.Discard # this should not discard the alpha
self.controller.SaveTexture(save_data, img_path)
data = rdtest.png_load_data(img_path)
magic_pixel = struct.unpack_from("BBBB", data[-1 - 50], 320 * 4)
val = [0, 0, 255, magic_pixel[3]]
if not rdtest.value_compare(magic_pixel,
val) or magic_pixel[3] not in [127, 128]:
raise rdtest.TestFailureException(
"Pixel @ 320,50 should be blue: {}, not {}".format(
val, magic_pixel))
draw = self.find_draw("Draw")
self.controller.SetFrameEvent(draw.eventId, False)
postvs_data = self.get_postvs(draw, rd.MeshDataStage.VSOut, 0,
draw.numIndices)
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_Position': [-0.5, -0.5, 0.0, 1.0],
'v2fcol': [0.0, 1.0, 0.0, 1.0],
},
1: {
'vtx': 1,
'idx': 1,
'gl_Position': [0.0, 0.5, 0.0, 1.0],
'v2fcol': [0.0, 1.0, 0.0, 1.0],
},
2: {
'vtx': 2,
'idx': 2,
'gl_Position': [0.5, -0.5, 0.0, 1.0],
'v2fcol': [0.0, 1.0, 0.0, 1.0],
},
}
self.check_mesh_data(postvs_ref, postvs_data)
results = self.controller.FetchCounters([
rd.GPUCounter.RasterizedPrimitives, rd.GPUCounter.VSInvocations,
rd.GPUCounter.FSInvocations
])
results = [r for r in results if r.eventId == draw.eventId]
if len(results) != 3:
raise rdtest.TestFailureException(
"Expected 3 results, got {} results".format(len(results)))
for r in results:
r: rd.CounterResult
val = r.value.u32
if r.counter == rd.GPUCounter.RasterizedPrimitives:
if not rdtest.value_compare(val, 1):
raise rdtest.TestFailureException(
"RasterizedPrimitives result {} is not as expected".
format(val))
else:
rdtest.log.success(
"RasterizedPrimitives result is as expected")
elif r.counter == rd.GPUCounter.VSInvocations:
if not rdtest.value_compare(val, 3):
raise rdtest.TestFailureException(
"VSInvocations result {} is not as expected".format(
val))
else:
rdtest.log.success("VSInvocations result is as expected")
elif r.counter == rd.GPUCounter.FSInvocations:
if val < int(0.1 * tex_details.width * tex_details.height):
raise rdtest.TestFailureException(
"FSInvocations result {} is not as expected".format(
val))
else:
rdtest.log.success("FSInvocations result is as expected")
else:
raise rdtest.TestFailureException(
"Unexpected counter result {}".format(r.counter))
rdtest.log.success("Counter data retrieved successfully")
draw = self.find_draw("NoScissor")
self.check(draw is not None)
draw = draw.next
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.overlay = rd.DebugOverlay.Drawcall
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
out.SetTextureDisplay(tex)
out.Display()
overlay_id = out.GetDebugOverlayTexID()
v = pipe.GetViewport(0)
self.check_pixel_value(overlay_id,
int(0.5 * v.width),
int(0.5 * v.height), [0.8, 0.1, 0.8, 1.0],
eps=1.0 / 256.0)
out.Shutdown()
rdtest.log.success("Overlay color is as expected")
def check_capture(self):
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
tex = rd.TextureDisplay()
# At each draw, the centre pixel of the viewport should be green
draw = self.get_first_draw()
while draw is not None:
self.controller.SetFrameEvent(draw.eventId, False)
if draw.flags & rd.DrawFlags.Drawcall:
tex.resourceId = self.controller.GetPipelineState(
).GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
view: rd.Viewport = self.controller.GetPipelineState(
).GetViewport(0)
x, y = int(view.x + view.width / 2), int(view.y +
view.height / 2)
# convert to top-left co-ordinates for use with PickPixel
y = self.get_texture(tex.resourceId).height - y
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False, x,
y, 0, 0, 0)
if not rdtest.value_compare(picked.floatValue,
[0.0, 1.0, 0.0, 1.0]):
raise rdtest.TestFailureException(
"Picked value {} at {} doesn't match expected green".
format(picked.floatValue, (x, y)))
draw = draw.next
rdtest.log.success("Draws are all green")
# Now save the backbuffer to disk
ref_path = rdtest.get_tmp_path('backbuffer.png')
save_data = rd.TextureSave()
save_data.resourceId = tex.resourceId
save_data.destType = rd.FileType.PNG
self.controller.SaveTexture(save_data, ref_path)
# Open the capture and grab the thumbnail, check that it is all green too (dirty way of verifying we didn't
# break in-app updates but somehow end up with the right data)
cap = rd.OpenCaptureFile()
# Open a particular file
status = cap.OpenFile(self.capture_filename, '', None)
# Make sure the file opened successfully
if status != rd.ReplayStatus.Succeeded:
cap.Shutdown()
raise rdtest.TestFailureException("Couldn't open '{}': {}".format(
self.capture_filename, str(status)))
thumb: rd.Thumbnail = cap.GetThumbnail(rd.FileType.PNG, 0)
tmp_path = rdtest.get_tmp_path('thumbnail.png')
with open(tmp_path, 'wb') as f:
f.write(thumb.data)
# The original thumbnail should also be identical, since we have the uncompressed extended thumbnail.
if not rdtest.png_compare(tmp_path, ref_path):
raise rdtest.TestFailureException(
"Reference backbuffer and thumbnail image differ", tmp_path,
ref_path)
rdtest.log.success("Thumbnail is identical to reference")
out.Shutdown()
def check_capture(self):
last_action: rd.ActionDescription = self.get_last_action()
self.controller.SetFrameEvent(last_action.eventId, True)
self.check_triangle(out=last_action.copyDestination)
rdtest.log.success("Triangle output looks correct")
action = self.find_action('CmdDraw')
self.controller.SetFrameEvent(action.eventId, True)
pipe: rd.PipeState = self.controller.GetPipelineState()
vkpipe = self.controller.GetVulkanPipelineState()
binding = vkpipe.graphics.descriptorSets[0].bindings[0]
if binding.dynamicallyUsedCount != 1:
raise rdtest.TestFailureException(
"Bind 0 doesn't have the right used count {}".format(
binding.dynamicallyUsedCount))
if not binding.binds[15].dynamicallyUsed:
raise rdtest.TestFailureException(
"Graphics bind 0[15] isn't dynamically used")
refl: rd.ShaderReflection = pipe.GetShaderReflection(
rd.ShaderStage.Vertex)
self.check(len(refl.readOnlyResources) == 0)
postvs = self.get_postvs(action,
rd.MeshDataStage.VSOut,
first_index=0,
num_indices=1,
instance=0)
trace: rd.ShaderDebugTrace = self.controller.DebugVertex(0, 0, 0, 0)
if trace.debugger is None:
raise rdtest.TestFailureException("No vertex debug result")
cycles, variables = self.process_trace(trace)
outputs = 0
for var in trace.sourceVars:
var: rd.SourceVariableMapping
if var.variables[
0].type == rd.DebugVariableType.Variable and var.signatureIndex >= 0:
name = var.name
if name not in postvs[0].keys():
raise rdtest.TestFailureException(
"Don't have expected output for {}".format(name))
expect = postvs[0][name]
value = self.evaluate_source_var(var, variables)
if len(expect) != value.columns:
raise rdtest.TestFailureException(
"Vertex output {} has different size ({} values) to expectation ({} values)"
.format(name, action.eventId, value.columns,
len(expect)))
compType = rd.VarTypeCompType(value.type)
if compType == rd.CompType.UInt:
debugged = list(value.value.u32v[0:value.columns])
elif compType == rd.CompType.SInt:
debugged = list(value.value.s32v[0:value.columns])
else:
debugged = list(value.value.f32v[0:value.columns])
is_eq, diff_amt = rdtest.value_compare_diff(expect,
debugged,
eps=5.0E-06)
if not is_eq:
rdtest.log.error(
"Debugged vertex output value {}: {} difference. {} doesn't exactly match postvs output {}"
.format(name, action.eventId, diff_amt, debugged,
expect))
outputs = outputs + 1
rdtest.log.success(
'Successfully debugged vertex in {} cycles, {}/{} outputs match'.
format(cycles, outputs, len(refl.outputSignature)))
self.controller.FreeTrace(trace)
history = self.controller.PixelHistory(
pipe.GetOutputTargets()[0].resourceId, 200, 150,
rd.Subresource(0, 0, 0), rd.CompType.Typeless)
# should be a clear then a draw
self.check(len(history) == 2)
self.check(
self.find_action('', history[0].eventId).flags
& rd.ActionFlags.Clear)
self.check(
self.find_action('', history[1].eventId).eventId == action.eventId)
self.check(history[1].Passed())
if not rdtest.value_compare(history[1].shaderOut.col.floatValue,
(0.0, 1.0, 0.0, 1.0)):
raise rdtest.TestFailureException(
"History for drawcall output is wrong: {}".format(
history[1].shaderOut.col.floatValue))
trace = self.controller.DebugPixel(200, 150, 0, 0)
refl: rd.ShaderReflection = pipe.GetShaderReflection(
rd.ShaderStage.Pixel)
self.check(len(refl.readOnlyResources) == 1)
if trace.debugger is None:
raise rdtest.TestFailureException("No pixel debug result")
cycles, variables = self.process_trace(trace)
output_sourcevar = self.find_output_source_var(
trace, rd.ShaderBuiltin.ColorOutput, 0)
if output_sourcevar is None:
raise rdtest.TestFailureException(
"Couldn't get colour output value")
debugged = self.evaluate_source_var(output_sourcevar, variables)
self.controller.FreeTrace(trace)
debuggedValue = list(debugged.value.f32v[0:4])
is_eq, diff_amt = rdtest.value_compare_diff(
history[1].shaderOut.col.floatValue, debuggedValue, eps=5.0E-06)
if not is_eq:
rdtest.log.error(
"Debugged pixel value {}: {} difference. {} doesn't exactly match history shader output {}"
.format(debugged.name, diff_amt, debuggedValue,
history[1].shaderOut.col.floatValue))
rdtest.log.success(
'Successfully debugged pixel in {} cycles, result matches'.format(
cycles))
out = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
tex.overlay = rd.DebugOverlay.TriangleSizeDraw
out.SetTextureDisplay(tex)
out.Display()
overlay_id = out.GetDebugOverlayTexID()
self.check_pixel_value(overlay_id, 200, 150,
[14992.0, 14992.0, 14992.0, 1.0])
rdtest.log.success("Triangle size overlay gave correct output")
out.Shutdown()
def check_capture(self):
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
pipe: rd.PipeState = self.controller.GetPipelineState()
stage = rd.ShaderStage.Pixel
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 0, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetGraphicsPipelineObject(), pipe.GetShader(stage),
pipe.GetShaderEntryPoint(stage), 0, cbuf.resourceId,
cbuf.byteOffset))
# For more detailed reference for the below checks, see the commented definition of the cbuffer
# in the shader source code in the demo itself
# vec4 a;
var_check.check('a').cols(4).rows(1).value([0.0, 1.0, 2.0, 3.0])
# vec3 b;
var_check.check('b').cols(3).rows(1).value([4.0, 5.0, 6.0])
# vec2 c; vec2 d;
var_check.check('c').cols(2).rows(1).value([8.0, 9.0])
var_check.check('d').cols(2).rows(1).value([10.0, 11.0])
# float e; vec3 f;
var_check.check('e').cols(1).rows(1).value([12.0])
var_check.check('f').cols(3).rows(1).value([16.0, 17.0, 18.0])
# vec4 dummy0;
var_check.check('dummy0')
# float j; vec2 k;
var_check.check('j').cols(1).rows(1).value([24.0])
var_check.check('k').cols(2).rows(1).value([26.0, 27.0])
# vec2 l; float m;
var_check.check('l').cols(2).rows(1).value([28.0, 29.0])
var_check.check('m').cols(1).rows(1).value([30.0])
# float n[4];
var_check.check('n').cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(1).rows(1).value([32.0]),
1:
lambda x: x.cols(1).rows(1).value([36.0]),
2:
lambda x: x.cols(1).rows(1).value([40.0]),
3:
lambda x: x.cols(1).rows(1).value([44.0]),
})
# vec4 dummy1;
var_check.check('dummy1')
# float o[4];
var_check.check('o').cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(1).rows(1).value([52.0]),
1:
lambda x: x.cols(1).rows(1).value([56.0]),
2:
lambda x: x.cols(1).rows(1).value([60.0]),
3:
lambda x: x.cols(1).rows(1).value([64.0]),
})
# float p;
var_check.check('p').cols(1).rows(1).value([68.0])
# vec4 dummy2;
var_check.check('dummy2')
# column_major vec4x4 q;
var_check.check('q').cols(4).rows(4).column_major().value([
76.0, 80.0, 84.0, 88.0, 77.0, 81.0, 85.0, 89.0, 78.0, 82.0, 86.0,
90.0, 79.0, 83.0, 87.0, 91.0
])
# row_major vec4x4 r;
var_check.check('r').cols(4).rows(4).row_major().value([
92.0, 93.0, 94.0, 95.0, 96.0, 97.0, 98.0, 99.0, 100.0, 101.0,
102.0, 103.0
])
# column_major vec4x3 s;
var_check.check('s').cols(4).rows(3).column_major().value([
108.0, 112.0, 116.0, 120.0, 109.0, 113.0, 117.0, 121.0, 110.0,
114.0, 118.0, 122.0
])
# vec4 dummy3;
var_check.check('dummy3')
# row_major vec4x3 t;
var_check.check('t').cols(4).rows(3).row_major().value([
128.0, 129.0, 130.0, 131.0, 132.0, 133.0, 134.0, 135.0, 136.0,
137.0, 138.0, 139.0
])
# vec4 dummy4;
var_check.check('dummy4')
# column_major vec2x3 u;
var_check.check('u').cols(3).rows(2).column_major().value(
[144.0, 148.0, 152.0, 145.0, 149.0, 153.0])
# vec4 dummy5;
var_check.check('dummy5')
# row_major vec3x2 v;
var_check.check('v').cols(3).rows(2).row_major().value(
[160.0, 161.0, 162.0, 164.0, 165.0, 166.0])
# vec4 dummy6;
var_check.check('dummy6')
# column_major vec3x2 w;
var_check.check('w').cols(2).rows(2).column_major().value(
[172.0, 176.0, 173.0, 177.0])
# vec4 dummy7;
var_check.check('dummy7')
# row_major vec3x2 x;
var_check.check('x').cols(2).rows(2).row_major().value(
[184.0, 185.0, 188.0, 189.0])
# vec4 dummy8;
var_check.check('dummy8')
# row_major vec2x2 y;
var_check.check('y').cols(2).rows(2).row_major().value(
[196.0, 197.0, 200.0, 201.0])
# float z;
var_check.check('z').cols(1).rows(1).value([204.0])
# vec4 dummy9;
var_check.check('dummy9')
# vec4 multiarray[3][2];
var_check.check('multiarray').cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([228.0, 229.0, 230.0, 231.0]
),
1:
lambda y: y.cols(4).rows(1).value([232.0, 233.0, 234.0, 235.0]
),
}),
1:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([236.0, 237.0, 238.0, 239.0]
),
1:
lambda y: y.cols(4).rows(1).value([240.0, 241.0, 242.0, 243.0]
),
}),
2:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([244.0, 245.0, 246.0, 247.0]
),
1:
lambda y: y.cols(4).rows(1).value([248.0, 249.0, 250.0, 251.0]
),
}),
})
# struct vec3_1 { vec3 a; float b; };
# struct nested { vec3_1 a; vec4 b[4]; vec3_1 c[4]; };
# nested structa[2];
var_check.check('structa').cols(0).rows(0).arraySize(2).members({
# structa[0]
0:
lambda s: s.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(0).rows(0).structSize(2).members({
'a':
lambda y: y.cols(3).rows(1).value([252.0, 253.0, 254.0]),
'b':
lambda y: y.cols(1).rows(1).value([255.0]),
}),
'b':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(4).rows(1).value(
[256.0, 257.0, 258.0, 259.0]),
1:
lambda y: y.cols(4).rows(1).value(
[260.0, 261.0, 262.0, 263.0]),
2:
lambda y: y.cols(4).rows(1).value(
[264.0, 265.0, 266.0, 267.0]),
3:
lambda y: y.cols(4).rows(1).value(
[268.0, 269.0, 270.0, 271.0]),
}),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[272.0, 273.0, 274.0]),
'b':
lambda z: z.cols(1).rows(1).value([275.0]),
}),
1:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[276.0, 277.0, 278.0]),
'b':
lambda z: z.cols(1).rows(1).value([279.0]),
}),
2:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[280.0, 281.0, 282.0]),
'b':
lambda z: z.cols(1).rows(1).value([283.0]),
}),
3:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[284.0, 285.0, 286.0]),
'b':
lambda z: z.cols(1).rows(1).value([287.0]),
}),
}),
}),
# structa[1]
1:
lambda s: s.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(0).rows(0).structSize(2).members({
'a':
lambda y: y.cols(3).rows(1).value([288.0, 289.0, 290.0]),
'b':
lambda y: y.cols(1).rows(1).value([291.0]),
}),
'b':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(4).rows(1).value(
[292.0, 293.0, 294.0, 295.0]),
1:
lambda y: y.cols(4).rows(1).value(
[296.0, 297.0, 298.0, 299.0]),
2:
lambda y: y.cols(4).rows(1).value(
[300.0, 301.0, 302.0, 303.0]),
3:
lambda y: y.cols(4).rows(1).value(
[304.0, 305.0, 306.0, 307.0]),
}),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[308.0, 309.0, 310.0]),
'b':
lambda z: z.cols(1).rows(1).value([311.0]),
}),
1:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[312.0, 313.0, 314.0]),
'b':
lambda z: z.cols(1).rows(1).value([315.0]),
}),
2:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[316.0, 317.0, 318.0]),
'b':
lambda z: z.cols(1).rows(1).value([319.0]),
}),
3:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[320.0, 321.0, 322.0]),
'b':
lambda z: z.cols(1).rows(1).value([323.0]),
}),
}),
}),
})
# column_major mat2x3 ac;
var_check.check('ac').cols(2).rows(3).column_major().value(
[324.0, 328.0, 325.0, 329.0, 326.0, 330.0])
# row_major mat2x3 ad;
var_check.check('ad').cols(2).rows(3).row_major().value(
[332.0, 333.0, 336.0, 337.0, 340.0, 341.0])
# column_major mat2x3 ae[2];
var_check.check('ae').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(3).column_major().value(
[344.0, 348.0, 345.0, 349.0, 346.0, 350.0]),
1:
lambda x: x.cols(2).rows(3).column_major().value(
[352.0, 356.0, 353.0, 357.0, 354.0, 358.0]),
})
# row_major mat2x3 af[2];
var_check.check('af').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(3).row_major().value(
[360.0, 361.0, 364.0, 365.0, 368.0, 369.0]),
1:
lambda x: x.cols(2).rows(3).row_major().value(
[372.0, 373.0, 376.0, 377.0, 380.0, 381.0]),
})
# vec2 dummy10;
var_check.check('dummy10')
# row_major mat2x2 ag;
var_check.check('ag').cols(2).rows(2).row_major().value(
[388.0, 389.0, 392.0, 393.0])
# vec2 dummy12;
var_check.check('dummy11')
# column_major float2x2 ah;
var_check.check('ah').cols(2).rows(2).column_major().value(
[400.0, 404.0, 401.0, 405.0])
# row_major mat2x2 ai[2];
var_check.check('ai').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(2).row_major().value(
[408.0, 409.0, 412.0, 413.0]),
1:
lambda x: x.cols(2).rows(2).row_major().value(
[416.0, 417.0, 420.0, 421.0]),
})
# column_major mat2x2 aj[2];
var_check.check('aj').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(2).column_major().value(
[424.0, 428.0, 425.0, 429.0]),
1:
lambda x: x.cols(2).rows(2).column_major().value(
[432.0, 436.0, 433.0, 437.0]),
})
# vec4 test;
var_check.check('test').rows(1).cols(4).value(
[440.0, 441.0, 442.0, 443.0])
# to save duplicating if this array changes, we calculate out from the start, as the array is tightly packed
base = 444.0
exp_vals = lambda wi, yi, xi: [
base + wi * 24.0 + yi * 8.0 + xi * 4.0 + c * 1.0
for c in range(0, 4)
]
# vec4 multiarray2[4][3][2];
var_check.check('multiarray2').cols(0).rows(0).arraySize(4).members({
0:
lambda w: w.cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(0, 0, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(0, 0, 1)),
}),
1:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(0, 1, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(0, 1, 1)),
}),
2:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(0, 2, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(0, 2, 1)),
}),
}),
1:
lambda w: w.cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(1, 0, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(1, 0, 1)),
}),
1:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(1, 1, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(1, 1, 1)),
}),
2:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(1, 2, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(1, 2, 1)),
}),
}),
2:
lambda w: w.cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(2, 0, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(2, 0, 1)),
}),
1:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(2, 1, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(2, 1, 1)),
}),
2:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(2, 2, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(2, 2, 1)),
}),
}),
3:
lambda w: w.cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(3, 0, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(3, 0, 1)),
}),
1:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(3, 1, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(3, 1, 1)),
}),
2:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value(exp_vals(3, 2, 0)),
1:
lambda y: y.cols(4).rows(1).value(exp_vals(3, 2, 1)),
}),
}),
})
var_check.done()
rdtest.log.success("CBuffer variables are as expected")
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
texdetails = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2),
int(texdetails.height / 2), 0, 0,
0)
if not rdtest.value_compare(picked.floatValue,
[440.1, 441.0, 442.0, 443.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("Picked value is as expected")
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 1, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetGraphicsPipelineObject(), pipe.GetShader(stage),
pipe.GetShaderEntryPoint(stage), 1, cbuf.resourceId,
cbuf.byteOffset))
# For bare uniforms we have partial data - only values used in the shader need to get assigned locations and
# some drivers are aggressive about stripping any others. Only uniforms with locations get upload values.
# Hence some of these checks don't check for the value - that means they might not be present
# vec4 A;
var_check.check('A').cols(4).rows(1).value([10.0, 20.0, 30.0, 40.0])
# vec2 B;
var_check.check('B').cols(2).rows(1).value([50.0, 60.0])
# vec3 C;
var_check.check('C').cols(3).rows(1).value([70.0, 80.0, 90.0])
# mat2x3 D;
var_check.check('D').cols(2).rows(3).value(
[100.0, 130.0, 110.0, 140.0, 120.0, 150.0])
# float E[3];
var_check.check('E').cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(1).rows(1).value([160.0]),
1:
lambda x: x.cols(1).rows(1).value([170.0]),
2:
lambda x: x.cols(1).rows(1).value([180.0]),
})
# vec4 F[3][2][2];
# Multidimensional arrays are represented as structs with N members
# Due to lacking reflection, we skip structSize() checks, but check everything else if it's present (if it's
# not, it will be skipped)
var_check.check('F').cols(0).rows(0).members({
'[0]':
lambda x: x.cols(0).rows(0).members({
'[0]':
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(4).rows(1).value(
[190.0, 200.0, 210.0, 220.0]),
1:
lambda x: x.cols(4).rows(1).value(
[230.0, 240.0, 250.0, 260.0]),
}),
'[1]':
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(4).rows(1).value(
[270.0, 280.0, 290.0, 300.0]),
1:
lambda x: x.cols(4).rows(1).value(
[310.0, 320.0, 330.0, 340.0]),
}),
}),
'[1]':
lambda x: x.cols(0).rows(0).members({
'[0]':
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(4).rows(1).value(
[350.0, 360.0, 370.0, 380.0]),
1:
lambda x: x.cols(4).rows(1).value(
[390.0, 400.0, 410.0, 420.0]),
}),
'[1]':
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(4).rows(1).value(
[430.0, 440.0, 450.0, 460.0]),
1:
lambda x: x.cols(4).rows(1).value(
[470.0, 480.0, 490.0, 500.0]),
}),
}),
'[2]':
lambda x: x.cols(0).rows(0).members({
'[0]':
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(4).rows(1).value(
[510.0, 520.0, 530.0, 540.0]),
1:
lambda x: x.cols(4).rows(1).value(
[550.0, 560.0, 570.0, 580.0]),
}),
'[1]':
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(4).rows(1).value(
[590.0, 600.0, 610.0, 620.0]),
1:
lambda x: x.cols(4).rows(1).value(
[630.0, 640.0, 650.0, 660.0]),
}),
}),
})
# struct vec3_1 { vec3 a; float b; };
# struct nested { vec3_1 a; vec4 b[4]; vec3_1 c[4]; };
# nested G[2];
# Due to lacking reflection, we don't know that G[x].a.a exists, as we only reference G[n].a.b
# Similarly we don't know that G[x].c[y].b exists
var_check.check('G').cols(0).rows(0).arraySize(2).members({
# G[0]
0:
lambda s: s.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(0).rows(0).members({
'a':
lambda y: y.cols(3).rows(1).value([680.0, 690.0, 700.0]),
'b':
lambda y: y.cols(1).rows(1).value([710.0]),
}),
'b':
lambda x: x.cols(0).rows(0).arraySize(4).members(
{
0: lambda y: y.cols(4).rows(1),
1: lambda y: y.cols(4).rows(1),
2: lambda y: y.cols(4).rows(1),
3: lambda y: y.cols(4).rows(1),
}),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(0).rows(0).members(
{
'a': lambda z: z.cols(3).rows(1),
'b': lambda z: z.cols(1).rows(1),
}),
1:
lambda y: y.cols(0).rows(0).members(
{
'a': lambda z: z.cols(3).rows(1),
'b': lambda z: z.cols(1).rows(1),
}),
2:
lambda y: y.cols(0).rows(0).members(
{
'a': lambda z: z.cols(3).rows(1),
'b': lambda z: z.cols(1).rows(1),
}),
3:
lambda y: y.cols(0).rows(0).members(
{
'a': lambda z: z.cols(3).rows(1),
'b': lambda z: z.cols(1).rows(1),
}),
}),
}),
# G[1]
1:
lambda s: s.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(0).rows(0).members({
'a':
lambda y: y.cols(3).rows(1).value([1040.0, 1050.0, 1060.0]
),
'b':
lambda y: y.cols(1).rows(1).value([1070.0]),
}),
'b':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(4).rows(1).value(
[1080.0, 1090.0, 1100.0, 1110.0]),
1:
lambda y: y.cols(4).rows(1).value(
[1120.0, 1130.0, 1140.0, 1150.0]),
2:
lambda y: y.cols(4).rows(1).value(
[1160.0, 1170.0, 1180.0, 1190.0]),
3:
lambda y: y.cols(4).rows(1).value(
[1200.0, 1210.0, 1220.0, 1230.0]),
}),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(0).rows(0).members(
{
'a': lambda z: z.cols(3).rows(1),
'b': lambda z: z.cols(1).rows(1),
}),
1:
lambda y: y.cols(0).rows(0).members(
{
'a': lambda z: z.cols(3).rows(1),
'b': lambda z: z.cols(1).rows(1),
}),
2:
lambda y: y.cols(0).rows(0).members(
{
'a': lambda z: z.cols(3).rows(1),
'b': lambda z: z.cols(1).rows(1),
}),
3:
lambda y: y.cols(0).rows(0).members({
'a':
lambda z: z.cols(3).rows(1).value(
[1360.0, 1370.0, 1380.0]),
'b':
lambda z: z.cols(1).rows(1),
}),
}),
}),
})
var_check.done()
rdtest.log.success("Bare uniform variables are as expected")
out.Shutdown()
def check_capture(self):
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
pipe: rd.PipeState = self.controller.GetPipelineState()
stage = rd.ShaderStage.Vertex
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 0, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetShader(stage), pipe.GetShaderEntryPoint(stage), 0,
cbuf.resourceId, cbuf.byteOffset))
# For more detailed reference for the below checks, see the commented definition of the cbuffer
# in the shader source code in the demo itself
# float a;
var_check.check('a').cols(1).rows(1).type(rd.VarType.Float).value(
[1.0])
# vec2 b;
var_check.check('b').cols(2).rows(1).type(rd.VarType.Float).value(
[2.0, 0.0])
# vec3 c;
var_check.check('c').cols(3).rows(1).type(rd.VarType.Float).value(
[0.0, 3.0])
# float d[2];
var_check.check('d').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([4.0]),
1:
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([5.0]),
})
# mat2x3 e;
var_check.check('e').cols(2).rows(3).column_major().type(
rd.VarType.Float).value([6.0, 999.0, 7.0, 0.0, 0.0, 0.0])
# mat2x3 f[2];
var_check.check('f').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(3).column_major().type(
rd.VarType.Float).value([8.0, 999.0, 9.0, 0.0, 0.0, 0.0]),
1:
lambda x: x.cols(2).rows(3).column_major().type(rd.VarType.Float).
value([10.0, 999.0, 11.0, 0.0, 0.0, 0.0]),
})
# float g;
var_check.check('g').cols(1).rows(1).type(rd.VarType.Float).value(
[12.0])
# struct S
# {
# float a;
# vec2 b;
# double c;
# float d;
# vec3 e;
# float f;
# };
# S h;
var_check.check('h').cols(0).rows(0).structSize(6).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([0.0]),
'b':
lambda x: x.cols(2).rows(1).type(rd.VarType.Float).value([0.0]),
'c':
lambda x: x.cols(1).rows(1).type(rd.VarType.Double).longvalue(
[13.0]),
'd':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([14.0]),
'e':
lambda x: x.cols(3).rows(1).type(rd.VarType.Float).value([0.0]),
'f':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([0.0]),
})
# S i[2];
var_check.check('i').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(0).rows(0).structSize(6).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([0.0]
),
'b':
lambda x: x.cols(2).rows(1).type(rd.VarType.Float).value([0.0]
),
'c':
lambda x: x.cols(1).rows(1).type(rd.VarType.Double).longvalue(
[15.0]),
'd':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([0.0]
),
'e':
lambda x: x.cols(3).rows(1).type(rd.VarType.Float).value([0.0]
),
'f':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([0.0]
),
}),
1:
lambda x: x.cols(0).rows(0).structSize(6).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([0.0]
),
'b':
lambda x: x.cols(2).rows(1).type(rd.VarType.Float).value([0.0]
),
'c':
lambda x: x.cols(1).rows(1).type(rd.VarType.Double).longvalue(
[0.0]),
'd':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value(
[16.0]),
'e':
lambda x: x.cols(3).rows(1).type(rd.VarType.Float).value([0.0]
),
'f':
lambda x: x.cols(1).rows(1).type(rd.VarType.Float).value([0.0]
),
}),
})
# i8vec4 pad1;
var_check.check('pad1')
# int8_t j;
var_check.check('j').cols(1).rows(1).type(rd.VarType.SByte).value([17])
# struct S8
# {
# int8_t a;
# i8vec4 b;
# i8vec2 c[4];
# };
# S8 k;
var_check.check('k').cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.SByte).value([0]),
'b':
lambda x: x.cols(4).rows(1).type(rd.VarType.SByte).value(
[0, 0, 0, 0]),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
1:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 18]),
2:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
3:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
}),
})
# S8 l[2];
var_check.check('l').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.SByte).value([19]),
'b':
lambda x: x.cols(4).rows(1).type(rd.VarType.SByte).value(
[0, 0, 0, 0]),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
1:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 20]),
2:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
3:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
}),
}),
1:
lambda x: x.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.SByte).value([21]),
'b':
lambda x: x.cols(4).rows(1).type(rd.VarType.SByte).value(
[0, 0, 0, 0]),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 22]),
1:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
2:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
3:
lambda x: x.cols(2).rows(1).type(rd.VarType.SByte).value(
[0, 0]),
}),
})
})
# int8_t m;
var_check.check('m').cols(1).rows(1).type(rd.VarType.SByte).value(
[-23])
# struct S16
# {
# uint16_t a;
# i16vec4 b;
# i16vec2 c[4];
# int8_t d;
# };
# S16 n;
var_check.check('n').cols(0).rows(0).structSize(4).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.UShort).value([65524]),
'b':
lambda x: x.cols(4).rows(1).type(rd.VarType.SShort).value(
[0, 0, 0, -2424]),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
1:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
2:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
3:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
}),
'd':
lambda x: x.cols(1).rows(1).type(rd.VarType.SByte).value([25]),
})
# i8vec4 pad2;
var_check.check('pad2')
# uint8_t o;
var_check.check('o').cols(1).rows(1).type(rd.VarType.UByte).value(
[226])
# S16 p[2];
var_check.check('p').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(0).rows(0).structSize(4).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.UShort).value([0]),
'b':
lambda x: x.cols(4).rows(1).type(rd.VarType.SShort).value(
[0, 0, 2727, 0]),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
1:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
2:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
3:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
}),
'd':
lambda x: x.cols(1).rows(1).type(rd.VarType.SByte).value([28]),
}),
1:
lambda x: x.cols(0).rows(0).structSize(4).members({
'a':
lambda x: x.cols(1).rows(1).type(rd.VarType.UShort).value([0]),
'b':
lambda x: x.cols(4).rows(1).type(rd.VarType.SShort).value(
[0, 0, 0, 2929]),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
1:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
2:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
3:
lambda x: x.cols(2).rows(1).type(rd.VarType.SShort).value(
[0, 0]),
}),
'd':
lambda x: x.cols(1).rows(1).type(rd.VarType.SByte).value([0]),
})
})
# i8vec4 pad3;
var_check.check('pad3')
# uint64_t q;
var_check.check('q').cols(1).rows(1).type(rd.VarType.ULong).longvalue(
[30303030303030])
# int64_t r;
var_check.check('r').cols(1).rows(1).type(rd.VarType.SLong).longvalue(
[-31313131313131])
# half s;
var_check.check('s').cols(1).rows(1).type(rd.VarType.Half).value(
[16.25])
# int8_t test;
var_check.check('test').cols(1).rows(1).type(rd.VarType.SByte).value(
[42])
var_check.done()
rdtest.log.success("CBuffer variables are as expected")
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
texdetails = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2),
int(texdetails.height / 2), 0, 0,
0)
# We just output green from the shader when the value is as expected
if not rdtest.value_compare(picked.floatValue, [0.0, 1.0, 0.0, 0.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("Picked value is as expected")
out.Shutdown()
def check_capture(self):
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
pipe: rd.PipeState = self.controller.GetPipelineState()
stage = rd.ShaderStage.Pixel
# Verify that the GLSL draw is first
disasm = self.controller.DisassembleShader(
pipe.GetGraphicsPipelineObject(), pipe.GetShaderReflection(stage),
'')
self.check('GLSL' in disasm)
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 0, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetShader(stage), pipe.GetShaderEntryPoint(stage), 0,
cbuf.resourceId, cbuf.byteOffset))
# For more detailed reference for the below checks, see the commented definition of the cbuffer
# in the shader source code in the demo itself
# vec4 a;
var_check.check('a').cols(4).rows(1).value([0.0, 1.0, 2.0, 3.0])
# vec3 b;
var_check.check('b').cols(3).rows(1).value([4.0, 5.0, 6.0])
# vec2 c; vec2 d;
var_check.check('c').cols(2).rows(1).value([8.0, 9.0])
var_check.check('d').cols(2).rows(1).value([10.0, 11.0])
# float e; vec3 f;
var_check.check('e').cols(1).rows(1).value([12.0])
var_check.check('f').cols(3).rows(1).value([16.0, 17.0, 18.0])
# vec4 dummy0;
var_check.check('dummy0')
# float j; vec2 k;
var_check.check('j').cols(1).rows(1).value([24.0])
var_check.check('k').cols(2).rows(1).value([26.0, 27.0])
# vec2 l; float m;
var_check.check('l').cols(2).rows(1).value([28.0, 29.0])
var_check.check('m').cols(1).rows(1).value([30.0])
# float n[4];
var_check.check('n').cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(1).rows(1).value([32.0]),
1:
lambda x: x.cols(1).rows(1).value([36.0]),
2:
lambda x: x.cols(1).rows(1).value([40.0]),
3:
lambda x: x.cols(1).rows(1).value([44.0]),
})
# vec4 dummy1;
var_check.check('dummy1')
# float o[4];
var_check.check('o').cols(0).rows(0).arraySize(4).members({
0:
lambda x: x.cols(1).rows(1).value([52.0]),
1:
lambda x: x.cols(1).rows(1).value([56.0]),
2:
lambda x: x.cols(1).rows(1).value([60.0]),
3:
lambda x: x.cols(1).rows(1).value([64.0]),
})
# float p;
var_check.check('p').cols(1).rows(1).value([68.0])
# vec4 dummy2;
var_check.check('dummy2')
# column_major vec4x4 q;
var_check.check('q').cols(4).rows(4).column_major().value([
76.0, 80.0, 84.0, 88.0, 77.0, 81.0, 85.0, 89.0, 78.0, 82.0, 86.0,
90.0, 79.0, 83.0, 87.0, 91.0
])
# row_major vec4x4 r;
var_check.check('r').cols(4).rows(4).row_major().value([
92.0, 93.0, 94.0, 95.0, 96.0, 97.0, 98.0, 99.0, 100.0, 101.0,
102.0, 103.0
])
# column_major vec4x3 s;
var_check.check('s').cols(4).rows(3).column_major().value([
108.0, 112.0, 116.0, 120.0, 109.0, 113.0, 117.0, 121.0, 110.0,
114.0, 118.0, 122.0
])
# vec4 dummy3;
var_check.check('dummy3')
# row_major vec4x3 t;
var_check.check('t').cols(4).rows(3).row_major().value([
128.0, 129.0, 130.0, 131.0, 132.0, 133.0, 134.0, 135.0, 136.0,
137.0, 138.0, 139.0
])
# vec4 dummy4;
var_check.check('dummy4')
# column_major vec2x3 u;
var_check.check('u').cols(3).rows(2).column_major().value(
[144.0, 148.0, 152.0, 145.0, 149.0, 153.0])
# vec4 dummy5;
var_check.check('dummy5')
# row_major vec3x2 v;
var_check.check('v').cols(3).rows(2).row_major().value(
[160.0, 161.0, 162.0, 164.0, 165.0, 166.0])
# vec4 dummy6;
var_check.check('dummy6')
# column_major vec3x2 w;
var_check.check('w').cols(2).rows(2).column_major().value(
[172.0, 176.0, 173.0, 177.0])
# vec4 dummy7;
var_check.check('dummy7')
# row_major vec3x2 x;
var_check.check('x').cols(2).rows(2).row_major().value(
[184.0, 185.0, 188.0, 189.0])
# vec4 dummy8;
var_check.check('dummy8')
# row_major vec2x2 y;
var_check.check('y').cols(2).rows(2).row_major().value(
[196.0, 197.0, 200.0, 201.0])
# float z;
var_check.check('z').cols(1).rows(1).value([204.0])
# vec4 dummy9;
var_check.check('dummy9')
# vec4 multiarray[3][2];
var_check.check('multiarray').cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([228.0, 229.0, 230.0, 231.0]
),
1:
lambda y: y.cols(4).rows(1).value([232.0, 233.0, 234.0, 235.0]
),
}),
1:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([236.0, 237.0, 238.0, 239.0]
),
1:
lambda y: y.cols(4).rows(1).value([240.0, 241.0, 242.0, 243.0]
),
}),
2:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([244.0, 245.0, 246.0, 247.0]
),
1:
lambda y: y.cols(4).rows(1).value([248.0, 249.0, 250.0, 251.0]
),
}),
})
# struct vec3_1 { vec3 a; float b; };
# struct nested { vec3_1 a; vec4 b[4]; vec3_1 c[4]; };
# nested structa[2];
var_check.check('structa').cols(0).rows(0).arraySize(2).members({
# structa[0]
0:
lambda s: s.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(0).rows(0).structSize(2).members({
'a':
lambda y: y.cols(3).rows(1).value([252.0, 253.0, 254.0]),
'b':
lambda y: y.cols(1).rows(1).value([255.0]),
}),
'b':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(4).rows(1).value(
[256.0, 257.0, 258.0, 259.0]),
1:
lambda y: y.cols(4).rows(1).value(
[260.0, 261.0, 262.0, 263.0]),
2:
lambda y: y.cols(4).rows(1).value(
[264.0, 265.0, 266.0, 267.0]),
3:
lambda y: y.cols(4).rows(1).value(
[268.0, 269.0, 270.0, 271.0]),
}),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[272.0, 273.0, 274.0]),
'b':
lambda z: z.cols(1).rows(1).value([275.0]),
}),
1:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[276.0, 277.0, 278.0]),
'b':
lambda z: z.cols(1).rows(1).value([279.0]),
}),
2:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[280.0, 281.0, 282.0]),
'b':
lambda z: z.cols(1).rows(1).value([283.0]),
}),
3:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[284.0, 285.0, 286.0]),
'b':
lambda z: z.cols(1).rows(1).value([287.0]),
}),
}),
}),
# structa[1]
1:
lambda s: s.cols(0).rows(0).structSize(3).members({
'a':
lambda x: x.cols(0).rows(0).structSize(2).members({
'a':
lambda y: y.cols(3).rows(1).value([288.0, 289.0, 290.0]),
'b':
lambda y: y.cols(1).rows(1).value([291.0]),
}),
'b':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(4).rows(1).value(
[292.0, 293.0, 294.0, 295.0]),
1:
lambda y: y.cols(4).rows(1).value(
[296.0, 297.0, 298.0, 299.0]),
2:
lambda y: y.cols(4).rows(1).value(
[300.0, 301.0, 302.0, 303.0]),
3:
lambda y: y.cols(4).rows(1).value(
[304.0, 305.0, 306.0, 307.0]),
}),
'c':
lambda x: x.cols(0).rows(0).arraySize(4).members({
0:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[308.0, 309.0, 310.0]),
'b':
lambda z: z.cols(1).rows(1).value([311.0]),
}),
1:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[312.0, 313.0, 314.0]),
'b':
lambda z: z.cols(1).rows(1).value([315.0]),
}),
2:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[316.0, 317.0, 318.0]),
'b':
lambda z: z.cols(1).rows(1).value([319.0]),
}),
3:
lambda y: y.cols(0).rows(0).structSize(2).members({
'a':
lambda z: z.cols(3).rows(1).value(
[320.0, 321.0, 322.0]),
'b':
lambda z: z.cols(1).rows(1).value([323.0]),
}),
}),
}),
})
# column_major mat2x3 ac;
var_check.check('ac').cols(2).rows(3).column_major().value(
[324.0, 328.0, 325.0, 329.0, 326.0, 330.0])
# row_major mat2x3 ad;
var_check.check('ad').cols(2).rows(3).row_major().value(
[332.0, 333.0, 336.0, 337.0, 340.0, 341.0])
# column_major mat2x3 ae[2];
var_check.check('ae').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(3).column_major().value(
[344.0, 348.0, 345.0, 349.0, 346.0, 350.0]),
1:
lambda x: x.cols(2).rows(3).column_major().value(
[352.0, 356.0, 353.0, 357.0, 354.0, 358.0]),
})
# row_major mat2x3 af[2];
var_check.check('af').cols(0).rows(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(3).row_major().value(
[360.0, 361.0, 364.0, 365.0, 368.0, 369.0]),
1:
lambda x: x.cols(2).rows(3).row_major().value(
[372.0, 373.0, 376.0, 377.0, 380.0, 381.0]),
})
# vec2 dummy10;
var_check.check('dummy10')
# row_major mat2x2 ag;
var_check.check('ag').cols(2).rows(2).row_major().value(
[388.0, 389.0, 392.0, 393.0])
# vec2 dummy11;
var_check.check('dummy11')
# column_major mat2x2 ah;
var_check.check('ah').cols(2).rows(2).column_major().value(
[400.0, 404.0, 401.0, 405.0])
# row_major mat2x2 ai[2];
var_check.check('ai').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(2).row_major().value(
[408.0, 409.0, 412.0, 413.0]),
1:
lambda x: x.cols(2).rows(2).row_major().value(
[416.0, 417.0, 420.0, 421.0]),
})
# column_major mat2x2 aj[2];
var_check.check('aj').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.cols(2).rows(2).column_major().value(
[424.0, 428.0, 425.0, 429.0]),
1:
lambda x: x.cols(2).rows(2).column_major().value(
[432.0, 436.0, 433.0, 437.0]),
})
# vec4 test;
var_check.check('test').rows(1).cols(4).value(
[440.0, 441.0, 442.0, 443.0])
var_check.done()
rdtest.log.success("GLSL CBuffer variables are as expected")
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
texdetails = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2),
int(texdetails.height / 2), 0, 0,
0)
if not rdtest.value_compare(picked.floatValue,
[440.1, 441.0, 442.0, 443.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("GLSL picked value is as expected")
# Check the specialization constants
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 1, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetShader(stage), pipe.GetShaderEntryPoint(stage), 1,
cbuf.resourceId, cbuf.byteOffset))
# int A;
# Default value 10, untouched
var_check.check('A').type(rd.VarType.SInt).rows(1).cols(1).value([10])
# float B;
# Value 20 from spec constants
var_check.check('B').type(rd.VarType.Float).rows(1).cols(1).value(
[20.0])
# bool C;
# Value True from spec constants
var_check.check('C').type(rd.VarType.UInt).rows(1).cols(1).value([1])
var_check.done()
rdtest.log.success("Specialization constants are as expected")
# Move to the HLSL draw
draw = draw.next
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
pipe: rd.PipeState = self.controller.GetPipelineState()
# Verify that this is the HLSL draw
disasm = self.controller.DisassembleShader(
pipe.GetGraphicsPipelineObject(), pipe.GetShaderReflection(stage),
'')
self.check('HLSL' in disasm)
cbuf: rd.BoundCBuffer = pipe.GetConstantBuffer(stage, 0, 0)
var_check = rdtest.ConstantBufferChecker(
self.controller.GetCBufferVariableContents(
pipe.GetShader(stage), pipe.GetShaderEntryPoint(stage), 0,
cbuf.resourceId, cbuf.byteOffset))
# For more detailed reference for the below checks, see the commented definition of the cbuffer
# in the shader source code in the demo itself
# float4 a;
var_check.check('a').rows(1).cols(4).value([0.0, 1.0, 2.0, 3.0])
# float3 b;
var_check.check('b').rows(1).cols(3).value([4.0, 5.0, 6.0])
# float2 c; float2 d;
var_check.check('c').rows(1).cols(2).value([8.0, 9.0])
var_check.check('d').rows(1).cols(2).value([10.0, 11.0])
# float e; float3 f;
var_check.check('e').rows(1).cols(1).value([12.0])
var_check.check('f').rows(1).cols(3).value([13.0, 14.0, 15.0])
# float g; float2 h; float i;
var_check.check('g').rows(1).cols(1).value([16.0])
var_check.check('h').rows(1).cols(2).value([17.0, 18.0])
var_check.check('i').rows(1).cols(1).value([19.0])
# float j; float2 k;
var_check.check('j').rows(1).cols(1).value([20.0])
var_check.check('k').rows(1).cols(2).value([21.0, 22.0])
# float2 l; float m;
var_check.check('l').rows(1).cols(2).value([24.0, 25.0])
var_check.check('m').rows(1).cols(1).value([26.0])
# float n[4];
var_check.check('n').rows(0).cols(0).arraySize(4).members({
0:
lambda x: x.rows(1).cols(1).value([28.0]),
1:
lambda x: x.rows(1).cols(1).value([32.0]),
2:
lambda x: x.rows(1).cols(1).value([36.0]),
3:
lambda x: x.rows(1).cols(1).value([40.0]),
})
# float4 dummy1;
var_check.check('dummy1')
# float o[4];
var_check.check('o').rows(0).cols(0).arraySize(4).members({
0:
lambda x: x.rows(1).cols(1).value([48.0]),
1:
lambda x: x.rows(1).cols(1).value([52.0]),
2:
lambda x: x.rows(1).cols(1).value([56.0]),
3:
lambda x: x.rows(1).cols(1).value([60.0]),
})
# float p; with std140 vulkan packing
var_check.check('p').rows(1).cols(1).value([64.0])
# float4 dummy2;
var_check.check('dummy2')
# float4 gldummy;
var_check.check('gldummy')
# HLSL majorness is flipped to match column-major SPIR-V with row-major HLSL.
# This means column major declared matrices will show up as row major in any reflection and SPIR-V
# it also means that dimensions are flipped, so a float3x4 is declared as a float4x3, and a 'row'
# is really a column, and vice-versa a 'column' is really a row.
# column_major float4x4 q;
var_check.check('q').rows(4).cols(4).row_major().value([
76.0, 77.0, 78.0, 79.0, 80.0, 81.0, 82.0, 83.0, 84.0, 85.0, 86.0,
87.0, 88.0, 89.0, 90.0, 91.0
])
# row_major float4x4 r;
var_check.check('r').rows(4).cols(4).column_major().value([
92.0, 96.0, 100.0, 104.0, 93.0, 97.0, 101.0, 105.0, 94.0, 98.0,
102.0, 106.0, 95.0, 99.0, 103.0, 107.0
])
# column_major float3x4 s;
var_check.check('s').rows(4).cols(3).row_major().value([
108.0, 109.0, 110.0, 112.0, 113.0, 114.0, 116.0, 117.0, 118.0,
120.0, 121.0, 122.0
])
# float4 dummy3;
var_check.check('dummy3')
# row_major float3x4 t;
var_check.check('t').rows(4).cols(3).column_major().value([
128.0, 132.0, 136.0, 129.0, 133.0, 137.0, 130.0, 134.0, 138.0,
131.0, 135.0, 139.0
])
# float4 dummy4;
var_check.check('dummy4')
# column_major float2x3 u;
var_check.check('u').rows(3).cols(2).row_major().value(
[144.0, 145.0, 148.0, 149.0, 152.0, 153.0])
# float4 dummy5;
var_check.check('dummy5')
# row_major float2x3 v;
var_check.check('v').rows(3).cols(2).column_major().value(
[160.0, 164.0, 161.0, 165.0, 162.0, 166.0])
# float4 dummy6;
var_check.check('dummy6')
# column_major float2x2 w;
var_check.check('w').rows(2).cols(2).row_major().value(
[172.0, 173.0, 176.0, 177.0])
# float4 dummy7;
var_check.check('dummy7')
# row_major float2x2 x;
var_check.check('x').rows(2).cols(2).column_major().value(
[184.0, 188.0, 185.0, 189.0])
# float4 dummy8;
var_check.check('dummy8')
# row_major float2x2 y;
var_check.check('y').rows(2).cols(2).column_major().value(
[196.0, 200.0, 197.0, 201.0])
# float z;
var_check.check('z').rows(1).cols(1).value([204.0])
# Temporarily until SPIR-V support for degenerate HLSL matrices is determined
var_check.check('dummy9')
# row_major float4x1 aa;
#var_check.check('aa').rows(1).cols(4).value([208.0, 212.0, 216.0, 220.0])
# column_major float4x1 ab;
#var_check.check('ab').rows(1).cols(4).value([224.0, 225.0, 226.0, 227.0])
# float4 multiarray[3][2];
var_check.check('multiarray').cols(0).rows(0).arraySize(3).members({
0:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([228.0, 229.0, 230.0, 231.0]
),
1:
lambda y: y.cols(4).rows(1).value([232.0, 233.0, 234.0, 235.0]
),
}),
1:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([236.0, 237.0, 238.0, 239.0]
),
1:
lambda y: y.cols(4).rows(1).value([240.0, 241.0, 242.0, 243.0]
),
}),
2:
lambda x: x.cols(0).rows(0).arraySize(2).members({
0:
lambda y: y.cols(4).rows(1).value([244.0, 245.0, 246.0, 247.0]
),
1:
lambda y: y.cols(4).rows(1).value([248.0, 249.0, 250.0, 251.0]
),
}),
})
# struct float3_1 { float3 a; float b; };
# struct nested { float3_1 a; float4 b[4]; float3_1 c[4]; };
# nested structa[2];
var_check.check('structa').rows(0).cols(0).arraySize(2).members({
# structa[0]
0:
lambda s: s.rows(0).cols(0).structSize(3).members({
'a':
lambda x: x.rows(0).cols(0).structSize(2).members({
'a':
lambda y: y.rows(1).cols(3).value([252.0, 253.0, 254.0]),
'b':
lambda y: y.rows(1).cols(1).value([255.0]),
}),
'b':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(1).cols(4).value(
[256.0, 257.0, 258.0, 259.0]),
1:
lambda y: y.rows(1).cols(4).value(
[260.0, 261.0, 262.0, 263.0]),
2:
lambda y: y.rows(1).cols(4).value(
[264.0, 265.0, 266.0, 267.0]),
3:
lambda y: y.rows(1).cols(4).value(
[268.0, 269.0, 270.0, 271.0]),
}),
'c':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[272.0, 273.0, 274.0]),
'b':
lambda z: z.rows(1).cols(1).value([275.0]),
}),
1:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[276.0, 277.0, 278.0]),
'b':
lambda z: z.rows(1).cols(1).value([279.0]),
}),
2:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[280.0, 281.0, 282.0]),
'b':
lambda z: z.rows(1).cols(1).value([283.0]),
}),
3:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[284.0, 285.0, 286.0]),
'b':
lambda z: z.rows(1).cols(1).value([287.0]),
}),
}),
}),
# structa[1]
1:
lambda s: s.rows(0).cols(0).structSize(3).members({
'a':
lambda x: x.rows(0).cols(0).structSize(2).members({
'a':
lambda y: y.rows(1).cols(3).value([288.0, 289.0, 290.0]),
'b':
lambda y: y.rows(1).cols(1).value([291.0]),
}),
'b':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(1).cols(4).value(
[292.0, 293.0, 294.0, 295.0]),
1:
lambda y: y.rows(1).cols(4).value(
[296.0, 297.0, 298.0, 299.0]),
2:
lambda y: y.rows(1).cols(4).value(
[300.0, 301.0, 302.0, 303.0]),
3:
lambda y: y.rows(1).cols(4).value(
[304.0, 305.0, 306.0, 307.0]),
}),
'c':
lambda x: x.rows(0).cols(0).arraySize(4).members({
0:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[308.0, 309.0, 310.0]),
'b':
lambda z: z.rows(1).cols(1).value([311.0]),
}),
1:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[312.0, 313.0, 314.0]),
'b':
lambda z: z.rows(1).cols(1).value([315.0]),
}),
2:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[316.0, 317.0, 318.0]),
'b':
lambda z: z.rows(1).cols(1).value([319.0]),
}),
3:
lambda y: y.rows(0).cols(0).structSize(2).members({
'a':
lambda z: z.rows(1).cols(3).value(
[320.0, 321.0, 322.0]),
'b':
lambda z: z.rows(1).cols(1).value([323.0]),
}),
}),
}),
})
# column_major float3x2 ac;
var_check.check('ac').rows(2).cols(3).row_major().value(
[324.0, 325.0, 326.0, 328.0, 329.0, 330.0])
# row_major float3x2 ad;
var_check.check('ad').rows(2).cols(3).column_major().value(
[332.0, 336.0, 340.0, 333.0, 337.0, 341.0])
# column_major float3x2 ae[2];
var_check.check('ae').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(2).cols(3).row_major().value(
[344.0, 345.0, 346.0, 348.0, 349.0, 350.0]),
1:
lambda x: x.rows(2).cols(3).row_major().value(
[352.0, 353.0, 354.0, 356.0, 357.0, 358.0]),
})
# row_major float3x2 af[2];
var_check.check('af').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(2).cols(3).column_major().value(
[360.0, 364.0, 368.0, 361.0, 365.0, 369.0]),
1:
lambda x: x.rows(2).cols(3).column_major().value(
[372.0, 376.0, 380.0, 373.0, 377.0, 381.0]),
})
# float2 dummy10;
var_check.check('dummy10')
# float2 dummy11;
var_check.check('dummy11')
# row_major float2x2 ag;
var_check.check('ag').rows(2).cols(2).column_major().value(
[388.0, 392.0, 389.0, 393.0])
# float2 dummy12;
var_check.check('dummy12')
# float2 dummy13;
var_check.check('dummy13')
# column_major float2x2 ah;
var_check.check('ah').rows(2).cols(2).row_major().value(
[400.0, 401.0, 404.0, 405.0])
# row_major float2x2 ai[2];
var_check.check('ai').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(2).cols(2).column_major().value(
[408.0, 412.0, 409.0, 413.0]),
1:
lambda x: x.rows(2).cols(2).column_major().value(
[416.0, 420.0, 417.0, 421.0]),
})
# column_major float2x2 aj[2];
var_check.check('aj').rows(0).cols(0).arraySize(2).members({
0:
lambda x: x.rows(2).cols(2).row_major().value(
[424.0, 425.0, 428.0, 429.0]),
1:
lambda x: x.rows(2).cols(2).row_major().value(
[432.0, 433.0, 436.0, 437.0]),
})
# float4 test;
var_check.check('test').rows(1).cols(4).value(
[440.0, 441.0, 442.0, 443.0])
var_check.done()
rdtest.log.success("HLSL CBuffer variables are as expected")
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2),
int(texdetails.height / 2), 0, 0,
0)
if not rdtest.value_compare(picked.floatValue,
[440.1, 441.0, 442.0, 443.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("HLSL picked value is as expected")
out.Shutdown()
def check_capture(self):
draw = self.get_last_draw()
self.check(draw is not None)
draw = draw.previous
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
self.out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
pipe: rd.PipeState = self.controller.GetPipelineState()
self.tex = rd.TextureDisplay()
self.tex.resourceId = pipe.GetOutputTargets()[0].resourceId
self.out.SetTextureDisplay(self.tex)
texdetails = self.get_texture(self.tex.resourceId)
# Top left we expect a regular line segment.
s = self.sample(0, 0)
# All points should be the line color
if not rdtest.value_compare(s, [True, True, True]):
raise rdtest.TestFailureException(
"Normal line picked values {} doesn't match expectation".
format(s))
# Next row is unstippled. The lines should either be all present, or not present
names = ["Rectangle", "Bresenham", "Rectangle Round"]
for col in [0, 1, 2]:
s = self.sample(1, col)
n = "Unstippled {}".format(names[col])
if s[0]:
if not rdtest.value_compare(s, [True, True, True]):
raise rdtest.TestFailureException(
"{} picked values {} doesn't match expectation".format(
n, s))
rdtest.log.success("{} line looks as expected".format(n))
else:
if not rdtest.value_compare(s, [False, False, False]):
raise rdtest.TestFailureException(
"{} picked values {} doesn't match expectation".format(
n, s))
rdtest.log.success("{} line not supported".format(n))
# Final row is stippled. The lines should be present on each end, and not present in the middle
# (or not present at all)
for col in [0, 1, 2]:
s = self.sample(2, col)
n = "Stippled {}".format(names[col])
if s[0]:
if not rdtest.value_compare(s, [True, False, True]):
raise rdtest.TestFailureException(
"{} picked values {} doesn't match expectation".format(
n, s))
rdtest.log.success("{} line looks as expected".format(n))
else:
if not rdtest.value_compare(s, [False, False, False]):
raise rdtest.TestFailureException(
"{} picked values {} doesn't match expectation".format(
n, s))
rdtest.log.success("{} line not supported".format(n))
rdtest.log.success("All lines look as expected")
self.out.Shutdown()
def check_capture(self, capture_filename: str,
controller: rd.ReplayController):
self.controller = controller
self.controller.SetFrameEvent(
self.find_draw("Quad").next.eventId, False)
self.out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(200, 200), rd.ReplayOutputType.Mesh)
pipe: rd.PipeState = self.controller.GetPipelineState()
self.cfg = rd.MeshDisplay()
cam: rd.Camera = rd.InitCamera(rd.CameraType.FPSLook)
cam.SetPosition(0, 0, 0)
cam.SetFPSRotation(0, 0, 0)
self.cfg.type = rd.MeshDataStage.VSOut
self.cfg.cam = cam
# Position is always first, so getting the postvs data will give us
inst0: rd.MeshFormat = self.controller.GetPostVSData(
0, 0, self.cfg.type)
self.cfg.position = inst0
# after position we have float2 Color2 then float4 Color4
self.cfg.second = self.cfg.position
self.cfg.second.vertexByteOffset += 16
self.cfg.second.vertexByteOffset += 8
if pipe.HasAlignedPostVSData(self.cfg.type):
self.cfg.second.vertexByteOffset += 8
# Configure an ortho camera, even though we don't really have a camera
self.cfg.ortho = True
self.cfg.position.nearPlane = 1.0
self.cfg.position.farPlane = 100.0
self.cfg.aspect = 1.0
self.cfg.wireframeDraw = True
self.cfg.position.meshColor = rd.FloatVector(1.0, 0.0, 1.0, 1.0)
self.cache_output()
# We should have a single quad, check each outside edge and the inside diagonal.
# All these line segments should have some colors (not including the background checkerboard or the frustum)
self.check_region((55, 95, 65, 95), lambda x: x != []) # Left edge
self.check_region((85, 60, 85, 70), lambda x: x != []) # Top edge
self.check_region((105, 100, 115, 100),
lambda x: x != []) # Right edge
self.check_region((90, 130, 90, 140), lambda x: x != []) # Bottom edge
self.check_region((65, 120, 75, 120),
lambda x: x != []) # Bottom-Left of diagonal
self.check_region((105, 70, 110, 70),
lambda x: x != []) # Top-right of diagonal
rdtest.log.success("Base rendering is as expected")
self.cfg.solidShadeMode = rd.SolidShade.Secondary
self.cfg.wireframeDraw = False
# allow for blending with white for the frustum
isred = lambda col: col[0] > col[1] and col[1] == col[2]
isgreen = lambda col: col[1] > col[0] and col[0] == col[2]
isblue = lambda col: col[2] > col[0] and col[0] == col[1]
isredgreen = lambda col: isred(col) or isgreen(col) or col[2] == 0
isyellow = lambda col: col[0] == col[1] and col[2] < col[1]
self.cache_output()
# The secondary color should be completely green
self.check_region((85, 70, 85, 125),
lambda x: all([isgreen(i) for i in x]))
self.check_region((65, 100, 105, 100),
lambda x: all([isgreen(i) for i in x]))
# this line segment isn't in the first instance
self.check_region((65, 55, 105, 55), lambda x: x == [])
# this line segment isn't in the second instance
self.check_region((65, 125, 105, 125),
lambda x: all([isgreen(i) for i in x]))
rdtest.log.success("Secondary rendering of instance 0 is as expected")
# Out of bounds should look the same as without highlighting at all, check the corners are all still green
self.cfg.highlightVert = 9
self.cache_output()
self.check_region((55, 60, 65, 70),
lambda x: all([isgreen(i) for i in x]))
self.check_region((105, 60, 115, 70),
lambda x: all([isgreen(i) for i in x]))
self.check_region((55, 130, 65, 140),
lambda x: all([isgreen(i) for i in x]))
self.check_region((105, 130, 115, 140),
lambda x: all([isgreen(i) for i in x]))
vert_regions = [
(55, 60, 65, 70),
(110, 60, 120, 70),
(55, 130, 65, 140),
(110, 60, 120, 70),
(110, 130, 120, 140),
(55, 130, 65, 140),
]
for vert in range(6):
self.cfg.highlightVert = vert
self.cache_output()
tri = int(vert / 3)
# Check that the triangle we're highlighting is red and the other is green
if tri == 0:
self.check_region((65, 75, 75, 85),
lambda x: all([isred(i) for i in x]))
self.check_region((100, 115, 110, 125),
lambda x: all([isgreen(i) for i in x]))
else:
self.check_region((65, 75, 75, 85),
lambda x: all([isgreen(i) for i in x]))
self.check_region((100, 115, 110, 125),
lambda x: all([isred(i) for i in x]))
# The corners that touch should be red and green - that is no other colours but red and green, but at least
# some red and some green
self.check_region(
(65, 115, 75, 125),
lambda x: all([isredgreen(i) for i in x]) and any(
[isred(i) for i in x]) and any([isgreen(i) for i in x]))
# check that there's blue in this vertex's region
self.check_region(vert_regions[vert],
lambda x: any([isblue(i) for i in x]))
rdtest.log.success("Rendering of highlighted vertices is as expected")
self.cfg.highlightVert = rd.MeshDisplay.NoHighlight
# If we render from the float2 color we shouldn't get any blue
self.cfg.second.vertexByteOffset = self.cfg.position.vertexByteOffset = inst0.vertexByteOffset
self.cfg.second.vertexByteOffset += 16
self.cfg.second.format.compCount = 2
self.cache_output()
# If we render from the float2 color we shouldn't get any blue since it's only a two-component value
self.check_region((85, 70, 85, 125),
lambda x: all([isredgreen(i) for i in x]))
self.check_region((65, 100, 105, 100),
lambda x: all([isredgreen(i) for i in x]))
self.check_region((65, 55, 105, 55), lambda x: x == [])
self.check_region((65, 125, 105, 125),
lambda x: all([isredgreen(i) for i in x]))
rdtest.log.success(
"Rendering of float2 color secondary in instance 0 is as expected")
self.cfg.highlightVert = rd.MeshDisplay.NoHighlight
inst1: rd.MeshFormat = self.controller.GetPostVSData(
1, 0, self.cfg.type)
self.cfg.curInstance = 1
self.cfg.second.vertexResourceId = self.cfg.position.vertexResourceId = inst1.vertexResourceId
self.cfg.second.vertexByteOffset = self.cfg.position.vertexByteOffset = inst1.vertexByteOffset
self.cfg.second.vertexByteOffset += 16
self.cfg.second.vertexByteOffset += 8
if pipe.HasAlignedPostVSData(self.cfg.type):
self.cfg.second.vertexByteOffset += 8
self.cache_output()
# The secondary color should be completely yellow
self.check_region((85, 70, 85, 125),
lambda x: all([isyellow(i) for i in x]))
self.check_region((65, 100, 105, 100),
lambda x: all([isyellow(i) for i in x]))
# this line segment isn't in the first instance
self.check_region((65, 55, 105, 55),
lambda x: all([isyellow(i) for i in x]))
# this line segment isn't in the second instance
self.check_region((65, 125, 105, 125), lambda x: x == [])
rdtest.log.success("Secondary rendering of instance 1 is as expected")
# If we render from the float2 color we shouldn't get any blue
self.cfg.second.vertexByteOffset = self.cfg.position.vertexByteOffset = inst1.vertexByteOffset
self.cfg.second.vertexByteOffset += 16
self.cfg.second.format.compCount = 2
self.cache_output()
# If we render from the float2 color we shouldn't get any blue since it's only a two-component value
self.check_region((85, 70, 85, 125),
lambda x: all([isredgreen(i) for i in x]))
self.check_region((65, 100, 105, 100),
lambda x: all([isredgreen(i) for i in x]))
self.check_region((65, 55, 105, 55),
lambda x: all([isredgreen(i) for i in x]))
self.check_region((65, 125, 105, 125), lambda x: x == [])
rdtest.log.success(
"Rendering of float2 color secondary in instance 1 is as expected")
self.cfg.solidShadeMode = rd.SolidShade.NoSolid
self.cfg.showAllInstances = True
self.cache_output()
# wireframe for original quad should still be present
self.check_region((55, 95, 65, 95), lambda x: x != [])
self.check_region((85, 60, 85, 70), lambda x: x != [])
self.check_region((105, 100, 115, 100), lambda x: x != [])
self.check_region((90, 130, 90, 140), lambda x: x != [])
self.check_region((65, 120, 75, 120), lambda x: x != [])
self.check_region((105, 70, 110, 70), lambda x: x != [])
# But now we'll have an additional instance
self.check_region((75, 55, 85, 55), lambda x: x != [])
self.check_region((125, 85, 135, 85), lambda x: x != [])
self.check_region((105, 110, 105, 120), lambda x: x != [])
self.cfg.showWholePass = True
self.cache_output()
# same again
self.check_region((55, 95, 65, 95), lambda x: x != [])
self.check_region((85, 60, 85, 70), lambda x: x != [])
self.check_region((105, 100, 115, 100), lambda x: x != [])
self.check_region((90, 130, 90, 140), lambda x: x != [])
self.check_region((65, 120, 75, 120), lambda x: x != [])
self.check_region((105, 70, 110, 70), lambda x: x != [])
self.check_region((75, 55, 85, 55), lambda x: x != [])
self.check_region((125, 85, 135, 85), lambda x: x != [])
self.check_region((105, 110, 105, 120), lambda x: x != [])
# But now an extra previous draw
self.check_region((30, 105, 40, 105), lambda x: x != [])
self.check_region((50, 80, 50, 90), lambda x: x != [])
self.check_region((45, 130, 55, 130), lambda x: x != [])
self.check_region((30, 150, 40, 150), lambda x: x != [])
rdtest.log.success("Mesh rendering is as expected")
self.cfg.showWholePass = False
self.cfg.showAllInstances = False
# Go back to instance 0. We can ignore cfg.second now
self.cfg.curInstance = 0
self.cfg.position.vertexResourceId = inst0.vertexResourceId
self.cfg.position.vertexByteOffset = inst0.vertexByteOffset
self.cache_output()
# Just above top-left, no result
self.check_vertex(55, 60,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
# Just inside top-left, first vertex
self.check_vertex(65, 70, (0, 0))
# Outside top-right, inside the second instance, but because we only have one instance showing should return
# no result
self.check_vertex(115, 60,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
self.check_vertex(80, 60,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
# In the first triangle near the top right
self.check_vertex(105, 70, (1, 0))
# In the second triangle near the top right
self.check_vertex(110, 70, (3, 0))
# In the second triangle near the middle, would be in the second instance
self.check_vertex(95, 110, (4, 0))
# In the second triangle near the bottom right
self.check_vertex(110, 130, (4, 0))
rdtest.log.success("Instance 0 picking is as expected")
# if we look at only instance 1, the results should change
self.cfg.curInstance = 1
self.cfg.position.vertexResourceId = inst1.vertexResourceId
self.cfg.position.vertexByteOffset = inst1.vertexByteOffset
self.cache_output()
self.check_vertex(55, 60,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
self.check_vertex(65, 70,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
self.check_vertex(115, 60, (1, 1))
self.check_vertex(80, 60, (0, 1))
self.check_vertex(105, 70, (1, 1))
self.check_vertex(110, 70, (1, 1))
self.check_vertex(95, 110, (5, 1))
self.check_vertex(110, 130,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
rdtest.log.success("Instance 1 picking is as expected")
# Now look at both instances together, this goes 'in order' so if there is overlap the first instance wins
self.cfg.showAllInstances = True
self.cache_output()
self.check_vertex(55, 60,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
self.check_vertex(65, 70, (0, 0))
self.check_vertex(115, 60, (1, 1))
self.check_vertex(80, 60, (0, 1))
self.check_vertex(105, 70, (1, 0))
self.check_vertex(110, 70, (3, 0))
self.check_vertex(95, 110, (4, 0))
self.check_vertex(110, 130, (4, 0))
rdtest.log.success("Both instance picking is as expected")
self.controller.SetFrameEvent(
self.find_draw("Points").next.eventId, False)
# Only one instance, just check we can see the points
self.cfg.curInstance = 0
self.cfg.position = self.controller.GetPostVSData(0, 0, self.cfg.type)
self.cfg.position.nearPlane = 1.0
self.cfg.position.farPlane = 100.0
self.cache_output()
# Picking points doesn't have any primitive, it should pick as long as it's close to the point
self.check_vertex(55, 60, (0, 0))
self.check_vertex(65, 70, (0, 0))
self.check_vertex(105, 65, (1, 0))
self.check_vertex(115, 135, (2, 0))
self.check_vertex(65, 130, (3, 0))
self.check_vertex(60, 125, (3, 0))
rdtest.log.success("Point picking is as expected")
self.controller.SetFrameEvent(
self.find_draw("Stride 0").next.eventId, False)
self.cfg.position = self.controller.GetPostVSData(0, 0, self.cfg.type)
self.cfg.position.nearPlane = 1.0
self.cfg.position.farPlane = 100.0
self.cache_output()
# Stride of 0 is unusual but valid, ensure vertex picking still works
self.check_vertex(55, 60, (0, 0))
self.check_vertex(65, 70, (0, 0))
self.check_vertex(105, 65,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
self.check_vertex(115, 135,
(rd.ReplayOutput.NoResult, rd.ReplayOutput.NoResult))
def check_capture(self):
draw = self.find_draw("Color Draw")
self.check(draw is not None)
draw = draw.next
self.controller.SetFrameEvent(draw.eventId, False)
pipe: rd.PipeState = self.controller.GetPipelineState()
self.check_pixel_value(pipe.GetOutputTargets()[0].resourceId, 0.5, 0.5,
[0.0, 1.0, 0.0, 1.0])
rdtest.log.success("Captured loaded with color as expected")
postvs_data = self.get_postvs(draw, rd.MeshDataStage.VSOut, 0,
draw.numIndices)
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'SV_POSITION': [-0.5, -0.5, 0.0, 1.0],
'COLOR': [0.0, 1.0, 0.0, 1.0],
'TEXCOORD': [0.0, 0.0],
},
1: {
'vtx': 1,
'idx': 1,
'SV_POSITION': [0.0, 0.5, 0.0, 1.0],
'COLOR': [0.0, 1.0, 0.0, 1.0],
'TEXCOORD': [0.0, 1.0],
},
2: {
'vtx': 2,
'idx': 2,
'SV_POSITION': [0.5, -0.5, 0.0, 1.0],
'COLOR': [0.0, 1.0, 0.0, 1.0],
'TEXCOORD': [1.0, 0.0],
},
}
self.check_mesh_data(postvs_ref, postvs_data)
rdtest.log.success("Mesh data is correct")
tex = rd.TextureDisplay()
tex.overlay = rd.DebugOverlay.Drawcall
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
out.SetTextureDisplay(tex)
out.Display()
overlay_id = out.GetDebugOverlayTexID()
v = pipe.GetViewport(0)
self.check_pixel_value(overlay_id,
int(0.5 * v.width),
int(0.5 * v.height), [0.8, 0.1, 0.8, 1.0],
eps=1.0 / 256.0)
out.Shutdown()
rdtest.log.success("Overlay color is as expected")
def check_capture(self):
draw = self.find_draw("Draw")
self.check(draw is not None)
self.controller.SetFrameEvent(draw.eventId, False)
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(out is not None)
ref = {
0: {
'SNORM': [1.0, -1.0, 1.0, -1.0],
'UNORM': [
12345.0 / 65535.0, 6789.0 / 65535.0, 1234.0 / 65535.0,
567.0 / 65535.0
],
'UINT': [12345, 6789, 1234, 567],
'ARRAY0': [1.0, 2.0],
'ARRAY1': [3.0, 4.0],
'ARRAY2': [5.0, 6.0],
'MATRIX0': [7.0, 8.0],
'MATRIX1': [9.0, 10.0],
},
1: {
'SNORM': [
32766.0 / 32767.0, -32766.0 / 32767.0, 16000.0 / 32767.0,
-16000.0 / 32767.0
],
'UNORM': [
56.0 / 65535.0, 7890.0 / 65535.0, 123.0 / 65535.0,
4567.0 / 65535.0
],
'UINT': [56, 7890, 123, 4567],
'ARRAY0': [11.0, 12.0],
'ARRAY1': [13.0, 14.0],
'ARRAY2': [15.0, 16.0],
'MATRIX0': [17.0, 18.0],
'MATRIX1': [19.0, 20.0],
},
2: {
'SNORM': [5.0 / 32767.0, -5.0 / 32767.0, 0.0, 0.0],
'UNORM': [
8765.0 / 65535.0, 43210.0 / 65535.0, 987.0 / 65535.0,
65432.0 / 65535.0
],
'UINT': [8765, 43210, 987, 65432],
'ARRAY0': [21.0, 22.0],
'ARRAY1': [23.0, 24.0],
'ARRAY2': [25.0, 26.0],
'MATRIX0': [27.0, 28.0],
'MATRIX1': [29.0, 30.0],
},
}
in_ref = copy.deepcopy(ref)
vsout_ref = copy.deepcopy(ref)
gsout_ref = ref
vsout_ref[0]['SV_Position'] = [-0.5, 0.5, 0.0, 1.0]
gsout_ref[0]['SV_Position'] = [0.5, -0.5, 0.4, 1.2]
vsout_ref[1]['SV_Position'] = [0.0, -0.5, 0.0, 1.0]
gsout_ref[1]['SV_Position'] = [-0.5, 0.0, 0.4, 1.2]
vsout_ref[2]['SV_Position'] = [0.5, 0.5, 0.0, 1.0]
gsout_ref[2]['SV_Position'] = [0.5, 0.5, 0.4, 1.2]
self.check_mesh_data(in_ref, self.get_vsin(draw))
rdtest.log.success("Vertex input data is as expected")
self.check_mesh_data(vsout_ref,
self.get_postvs(rd.MeshDataStage.VSOut))
rdtest.log.success("Vertex output data is as expected")
self.check_mesh_data(gsout_ref,
self.get_postvs(rd.MeshDataStage.GSOut))
rdtest.log.success("Geometry output data is as expected")
pipe: rd.PipeState = self.controller.GetPipelineState()
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
texdetails = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(texdetails.width / 2),
int(texdetails.height / 2), 0, 0,
0)
if not rdtest.value_compare(picked.floatValue, [0.0, 1.0, 0.0, 1.0]):
raise rdtest.TestFailureException(
"Picked value {} doesn't match expectation".format(
picked.floatValue))
rdtest.log.success("Triangle picked value is as expected")
out.Shutdown()
def check_capture(self):
out: rd.ReplayOutput = self.controller.CreateOutput(rd.CreateHeadlessWindowingData(100, 100), rd.ReplayOutputType.Texture)
self.check(out is not None)
test_marker: rd.DrawcallDescription = self.find_draw("Test")
self.controller.SetFrameEvent(test_marker.next.eventId, True)
pipe: rd.PipeState = self.controller.GetPipelineState()
col_tex: rd.ResourceId = pipe.GetOutputTargets()[0].resourceId
tex = rd.TextureDisplay()
tex.resourceId = col_tex
# Check the actual output is as expected first.
# Background around the outside
self.check_pixel_value(col_tex, 0.1, 0.1, [0.2, 0.2, 0.2, 1.0])
self.check_pixel_value(col_tex, 0.8, 0.1, [0.2, 0.2, 0.2, 1.0])
self.check_pixel_value(col_tex, 0.5, 0.95, [0.2, 0.2, 0.2, 1.0])
# Large dark grey triangle
self.check_pixel_value(col_tex, 0.5, 0.1, [0.1, 0.1, 0.1, 1.0])
self.check_pixel_value(col_tex, 0.5, 0.9, [0.1, 0.1, 0.1, 1.0])
self.check_pixel_value(col_tex, 0.2, 0.9, [0.1, 0.1, 0.1, 1.0])
self.check_pixel_value(col_tex, 0.8, 0.9, [0.1, 0.1, 0.1, 1.0])
# Red upper half triangle
self.check_pixel_value(col_tex, 0.3, 0.4, [1.0, 0.0, 0.0, 1.0])
# Blue lower half triangle
self.check_pixel_value(col_tex, 0.3, 0.6, [0.0, 0.0, 1.0, 1.0])
# Floating clipped triangle
self.check_pixel_value(col_tex, 335, 140, [0.0, 0.0, 0.0, 1.0])
self.check_pixel_value(col_tex, 340, 140, [0.2, 0.2, 0.2, 1.0])
# Triangle size triangles
self.check_pixel_value(col_tex, 200, 51, [1.0, 0.5, 1.0, 1.0])
self.check_pixel_value(col_tex, 200, 65, [1.0, 1.0, 0.0, 1.0])
self.check_pixel_value(col_tex, 200, 79, [0.0, 1.0, 1.0, 1.0])
self.check_pixel_value(col_tex, 200, 93, [0.0, 1.0, 0.0, 1.0])
for overlay in rd.DebugOverlay:
if overlay == rd.DebugOverlay.NoOverlay:
continue
# These overlays are just displaymodes really, not actually separate overlays
if overlay == rd.DebugOverlay.NaN or overlay == rd.DebugOverlay.Clipping:
continue
# We'll test the clear-before-X overlays seperately, for both colour and depth
if overlay == rd.DebugOverlay.ClearBeforeDraw or overlay == rd.DebugOverlay.ClearBeforePass:
continue
rdtest.log.print("Checking overlay {} in main draw".format(str(overlay)))
tex.overlay = overlay
out.SetTextureDisplay(tex)
out.Display()
eps = 1.0 / 256.0
overlay_id: rd.ResourceId = out.GetDebugOverlayTexID()
# We test a few key spots:
# 4 points along the left side of the big triangle, above/in/below its intersection with the tri behind
# 4 points outside all triangles
# The overlap between the big tri and the bottom tri, and between it and the right backface culled tri
# The bottom tri's part that sticks out
# The two parts of the backface culled tri that stick out
# The depth clipped tri, in and out of clipping
# The 4 triangle size test triangles
if overlay == rd.DebugOverlay.Drawcall:
self.check_pixel_value(overlay_id, 150, 90, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 130, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 160, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [0.0, 0.0, 0.0, 0.5], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [0.0, 0.0, 0.0, 0.5], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 0.0, 0.0, 0.5], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [0.0, 0.0, 0.0, 0.5], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 135, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 340, 145, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 51, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [0.8, 0.1, 0.8, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [0.8, 0.1, 0.8, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.Wireframe:
# Wireframe we only test a limited set to avoid hitting implementation variations of line raster
# We also have to fudge a little because the lines might land on adjacent pixels
x = 142
picked: rd.PixelValue = self.controller.PickPixel(overlay_id, x, 150, rd.Subresource(), rd.CompType.Typeless)
if picked.floatValue[3] == 0.0:
x = 141
self.check_pixel_value(overlay_id, x, 90, [200.0/255.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, x, 130, [200.0/255.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, x, 160, [200.0/255.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, x, 200, [200.0/255.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [200.0/255.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [200.0/255.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [200.0/255.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [200.0/255.0, 1.0, 0.0, 0.0], eps=eps)
y = 149
picked: rd.PixelValue = self.controller.PickPixel(overlay_id, 325, y, rd.Subresource(), rd.CompType.Typeless)
if picked.floatValue[3] == 0.0:
y = 150
self.check_pixel_value(overlay_id, 325, y, [200.0/255.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 340, y, [200.0/255.0, 1.0, 0.0, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.Depth:
self.check_pixel_value(overlay_id, 150, 90, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 130, [0.0, 1.0, 0.0, 1.0], eps=eps)
# Intersection with lesser depth - depth fail
self.check_pixel_value(overlay_id, 150, 160, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [0.0, 1.0, 0.0, 1.0], eps=eps)
# Backface culled triangle
self.check_pixel_value(overlay_id, 285, 135, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [0.0, 1.0, 0.0, 1.0], eps=eps)
# Depth clipped part of tri
self.check_pixel_value(overlay_id, 340, 145, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 51, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [0.0, 1.0, 0.0, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.Stencil:
self.check_pixel_value(overlay_id, 150, 90, [0.0, 1.0, 0.0, 1.0], eps=eps)
# Intersection with different stencil - stencil fail
self.check_pixel_value(overlay_id, 150, 130, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 160, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [0.0, 1.0, 0.0, 1.0], eps=eps)
# Backface culled triangle
self.check_pixel_value(overlay_id, 285, 135, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [0.0, 1.0, 0.0, 1.0], eps=eps)
# Depth clipped part of tri
self.check_pixel_value(overlay_id, 340, 145, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 51, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [0.0, 1.0, 0.0, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.BackfaceCull:
self.check_pixel_value(overlay_id, 150, 90, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 130, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 160, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [0.0, 1.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [0.0, 1.0, 0.0, 1.0], eps=eps)
# Backface culled triangle
self.check_pixel_value(overlay_id, 285, 135, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 340, 145, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 51, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [0.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [0.0, 1.0, 0.0, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.ViewportScissor:
# Inside viewport
self.check_pixel_value(overlay_id, 50, 50, [0.2*0.7, 0.2*0.7, 0.9*0.7, 0.7*0.7], eps=eps)
self.check_pixel_value(overlay_id, 350, 50, [0.2*0.7, 0.2*0.7, 0.9*0.7, 0.7*0.7], eps=eps)
self.check_pixel_value(overlay_id, 50, 250, [0.2*0.7, 0.2*0.7, 0.9*0.7, 0.7*0.7], eps=eps)
self.check_pixel_value(overlay_id, 350, 250, [0.2*0.7, 0.2*0.7, 0.9*0.7, 0.7*0.7], eps=eps)
# Viewport border
self.check_pixel_value(overlay_id, 12, 12, [0.1, 0.1, 0.1, 1.0], eps=eps)
# Outside viewport (not on scissor border)
self.check_pixel_value(overlay_id, 6, 6, [0.0, 0.0, 0.0, 0.0], eps=eps)
# Scissor border
self.check_pixel_value(overlay_id, 0, 0, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 20, 0, [0.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 40, 0, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 60, 0, [0.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 60, 0, [0.0, 0.0, 0.0, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.QuadOverdrawDraw:
self.check_pixel_value(overlay_id, 150, 90, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 130, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 160, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [2.0, 2.0, 2.0, 2.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 135, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 340, 145, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 51, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [1.0, 1.0, 1.0, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.QuadOverdrawPass:
self.check_pixel_value(overlay_id, 150, 90, [1.0, 1.0, 1.0, 1.0], eps=eps)
# Do an extra tap here where we overlap with the extreme-background largest triangle, to show that
# overdraw
self.check_pixel_value(overlay_id, 150, 100, [2.0, 2.0, 2.0, 2.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 130, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 160, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [2.0, 2.0, 2.0, 2.0], eps=eps)
# Two of these have overdraw from the pass due to the large background triangle
self.check_pixel_value(overlay_id, 125, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [3.0, 3.0, 3.0, 3.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [2.0, 2.0, 2.0, 2.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [2.0, 2.0, 2.0, 2.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 135, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [1.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 340, 145, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 51, [2.0, 2.0, 2.0, 2.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [2.0, 2.0, 2.0, 2.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [2.0, 2.0, 2.0, 2.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [2.0, 2.0, 2.0, 2.0], eps=eps)
elif overlay == rd.DebugOverlay.TriangleSizeDraw:
eps = 1.0
self.check_pixel_value(overlay_id, 150, 90, [10632.0, 10632.0, 10632.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 130, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 160, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [10632.0, 10632.0, 10632.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [2128.0, 2128.0, 2128.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [10632.0, 10632.0, 10632.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [2128.0, 2128.0, 2128.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 135, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [531.0, 531.0, 531.0, 531.0], eps=eps)
self.check_pixel_value(overlay_id, 340, 145, [0.0, 0.0, 0.0, 0.0], eps=eps)
eps = 0.01
self.check_pixel_value(overlay_id, 200, 51, [8.305, 8.305, 8.305, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [5.316, 5.316, 5.316, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [3.0, 3.0, 3.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [1.33, 1.33, 1.33, 1.0], eps=eps)
elif overlay == rd.DebugOverlay.TriangleSizePass:
eps = 1.0
self.check_pixel_value(overlay_id, 150, 90, [10632.0, 10632.0, 10632.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 130, [3324.0, 3324.0, 3324.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 160, [3324.0, 3324.0, 3324.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 150, 200, [10632.0, 10632.0, 10632.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 125, 250, [43072.0, 43072.0, 43072.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 60, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 250, [43072.0, 43072.0, 43072.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 175, [2128.0, 2128.0, 2128.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 250, 150, [10632.0, 10632.0, 10632.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 220, 190, [2128.0, 2128.0, 2128.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 135, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(overlay_id, 285, 165, [43072.0, 43072.0, 43072.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 330, 145, [531.0, 531.0, 531.0, 531.0], eps=eps)
self.check_pixel_value(overlay_id, 340, 145, [0.0, 0.0, 0.0, 0.0], eps=eps)
eps = 0.01
self.check_pixel_value(overlay_id, 200, 51, [8.305, 8.305, 8.305, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 65, [5.316, 5.316, 5.316, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 79, [3.0, 3.0, 3.0, 1.0], eps=eps)
self.check_pixel_value(overlay_id, 200, 93, [1.33, 1.33, 1.33, 1.0], eps=eps)
rdtest.log.success("Picked pixels are as expected for {}".format(str(overlay)))
# Now check clear-before-X by hand, for colour and for depth
depth_tex: rd.ResourceId = pipe.GetDepthTarget().resourceId
eps = 1.0/256.0
# Check colour and depth before-hand
self.check_pixel_value(col_tex, 250, 250, [0.1, 0.1, 0.1, 1.0], eps=eps)
self.check_pixel_value(col_tex, 125, 125, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 125, 175, [0.0, 0.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 50, 50, [0.2, 0.2, 0.2, 1.0], eps=eps)
self.check_pixel_value(col_tex, 291, 150, [0.977, 0.977, 0.977, 1.0], eps=0.075)
self.check_pixel_value(col_tex, 200, 51, [1.0, 0.5, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 65, [1.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 79, [0.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 93, [0.0, 1.0, 0.0, 1.0], eps=eps)
eps = 0.001
self.check_pixel_value(depth_tex, 160, 135, [0.9, 85.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 160, 165, [0.0, 0.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 250, 150, [0.5, 85.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 250, 250, [0.95, 0.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 50, 50, [1.0, 0.0/255.0, 0.0, 1.0], eps=eps)
# Check clear before pass
tex.resourceId = col_tex
tex.overlay = rd.DebugOverlay.ClearBeforePass
out.SetTextureDisplay(tex)
out.Display()
eps = 1.0/256.0
self.check_pixel_value(col_tex, 250, 250, [0.1, 0.1, 0.1, 1.0], eps=eps)
self.check_pixel_value(col_tex, 125, 125, [1.0, 0.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 125, 175, [0.0, 0.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 50, 50, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(col_tex, 291, 150, [0.977, 0.977, 0.977, 1.0], eps=0.075)
self.check_pixel_value(col_tex, 200, 51, [1.0, 0.5, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 65, [1.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 79, [0.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 93, [0.0, 1.0, 0.0, 1.0], eps=eps)
tex.resourceId = depth_tex
tex.overlay = rd.DebugOverlay.ClearBeforePass
out.SetTextureDisplay(tex)
out.Display()
eps = 0.001
self.check_pixel_value(depth_tex, 160, 135, [0.9, 85.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 160, 165, [0.0, 0.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 250, 150, [0.5, 85.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 250, 250, [0.95, 0.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 50, 50, [1.0, 0.0/255.0, 0.0, 1.0], eps=eps)
rdtest.log.success("Clear before pass colour and depth values as expected")
# Check clear before draw
tex.resourceId = col_tex
tex.overlay = rd.DebugOverlay.ClearBeforeDraw
out.SetTextureDisplay(tex)
out.Display()
eps = 1.0/256.0
# These are all pass triangles, should be cleared
self.check_pixel_value(col_tex, 250, 250, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(col_tex, 125, 125, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(col_tex, 125, 175, [0.0, 0.0, 0.0, 0.0], eps=eps)
self.check_pixel_value(col_tex, 50, 50, [0.0, 0.0, 0.0, 0.0], eps=eps)
# These should be identical
self.check_pixel_value(col_tex, 291, 150, [0.977, 0.977, 0.977, 1.0], eps=0.075)
self.check_pixel_value(col_tex, 200, 51, [1.0, 0.5, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 65, [1.0, 1.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 79, [0.0, 1.0, 1.0, 1.0], eps=eps)
self.check_pixel_value(col_tex, 200, 93, [0.0, 1.0, 0.0, 1.0], eps=eps)
tex.resourceId = depth_tex
tex.overlay = rd.DebugOverlay.ClearBeforeDraw
out.SetTextureDisplay(tex)
out.Display()
eps = 0.001
# Without the pass, depth/stencil results are different
self.check_pixel_value(depth_tex, 160, 135, [0.5, 85.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 160, 165, [0.5, 85.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 250, 150, [0.5, 85.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 250, 250, [1.0, 0.0/255.0, 0.0, 1.0], eps=eps)
self.check_pixel_value(depth_tex, 50, 50, [1.0, 0.0/255.0, 0.0, 1.0], eps=eps)
rdtest.log.success("Clear before draw colour and depth values as expected")
rdtest.log.success("All overlays as expected for main draw")
# Now test overlays on a render-to-slice/mip case
for mip in [2, 3]:
sub_marker: rd.DrawcallDescription = self.find_draw("Subresources mip {}".format(mip))
self.controller.SetFrameEvent(sub_marker.next.eventId, True)
pipe: rd.PipeState = self.controller.GetPipelineState()
col_tex = pipe.GetOutputTargets()[0].resourceId
sub = rd.Subresource(pipe.GetOutputTargets()[0].firstMip, 0, 0)
for overlay in rd.DebugOverlay:
if overlay == rd.DebugOverlay.NoOverlay:
continue
# These overlays are just displaymodes really, not actually separate overlays
if overlay == rd.DebugOverlay.NaN or overlay == rd.DebugOverlay.Clipping:
continue
if overlay == rd.DebugOverlay.ClearBeforeDraw or overlay == rd.DebugOverlay.ClearBeforePass:
continue
rdtest.log.success("Checking overlay {} with mip/slice rendering".format(str(overlay)))
tex.resourceId = col_tex
tex.overlay = overlay
tex.subresource = sub
out.SetTextureDisplay(tex)
out.Display()
overlay_id: rd.ResourceId = out.GetDebugOverlayTexID()
shift = 0
if mip == 3:
shift = 1
# All values in mip 0 should be 0 for all overlays
self.check_pixel_value(overlay_id, 200, 150, [0.0, 0.0, 0.0, 0.0], sub=rd.Subresource(0, 0, 0))
self.check_pixel_value(overlay_id, 197, 147, [0.0, 0.0, 0.0, 0.0], sub=rd.Subresource(0, 0, 0))
self.check_pixel_value(overlay_id, 203, 153, [0.0, 0.0, 0.0, 0.0], sub=rd.Subresource(0, 0, 0))
rdtest.log.success("Other mips are empty as expected for overlay {}".format(str(overlay)))
if overlay == rd.DebugOverlay.Drawcall:
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift, [0.8, 0.1, 0.8, 1.0], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 30 >> shift, 36 >> shift, [0.0, 0.0, 0.0, 0.5], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 70 >> shift, 34 >> shift, [0.8, 0.1, 0.8, 1.0], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 70 >> shift, 20 >> shift, [0.0, 0.0, 0.0, 0.5], sub=sub, eps=eps)
elif overlay == rd.DebugOverlay.Wireframe:
self.check_pixel_value(overlay_id, 36 >> shift, 36 >> shift, [200.0 / 255.0, 1.0, 0.0, 1.0],
sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 36 >> shift, 50 >> shift, [200.0 / 255.0, 1.0, 0.0, 1.0],
sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift, [200.0 / 255.0, 1.0, 0.0, 0.0],
sub=sub, eps=eps)
elif overlay == rd.DebugOverlay.Depth or overlay == rd.DebugOverlay.Stencil:
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift, [0.0, 1.0, 0.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 30 >> shift, 36 >> shift, [0.0, 1.0, 0.0, 0.0], sub=sub)
self.check_pixel_value(overlay_id, 70 >> shift, 34 >> shift, [1.0, 0.0, 0.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 70 >> shift, 20 >> shift, [0.0, 1.0, 0.0, 0.0], sub=sub)
elif overlay == rd.DebugOverlay.BackfaceCull:
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift, [0.0, 1.0, 0.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 30 >> shift, 36 >> shift, [0.0, 1.0, 0.0, 0.0], sub=sub)
self.check_pixel_value(overlay_id, 70 >> shift, 34 >> shift, [1.0, 0.0, 0.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 70 >> shift, 20 >> shift, [0.0, 1.0, 0.0, 0.0], sub=sub)
elif overlay == rd.DebugOverlay.ViewportScissor:
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift,
[0.2 * 0.7, 0.2 * 0.7, 0.9 * 0.7, 0.7 * 0.7], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 30 >> shift, 36 >> shift,
[0.2 * 0.7, 0.2 * 0.7, 0.9 * 0.7, 0.7 * 0.7], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 70 >> shift, 34 >> shift,
[0.2 * 0.7, 0.2 * 0.7, 0.9 * 0.7, 0.7 * 0.7], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 70 >> shift, 20 >> shift,
[0.2 * 0.7, 0.2 * 0.7, 0.9 * 0.7, 0.7 * 0.7], sub=sub, eps=eps)
if mip == 2:
self.check_pixel_value(overlay_id, 6, 6, [0.1, 0.1, 0.1, 1.0], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 4, 4, [0.0, 0.0, 0.0, 0.0], sub=sub)
self.check_pixel_value(overlay_id, 0, 0, [1.0, 1.0, 1.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 20, 0, [0.0, 0.0, 0.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 40, 0, [1.0, 1.0, 1.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 60, 0, [0.0, 0.0, 0.0, 1.0], sub=sub)
else:
self.check_pixel_value(overlay_id, 4, 4, [0.1, 0.1, 0.1, 1.0], sub=sub, eps=eps)
self.check_pixel_value(overlay_id, 0, 0, [1.0, 1.0, 1.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 20, 0, [0.0, 0.0, 0.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 40, 0, [1.0, 1.0, 1.0, 1.0], sub=sub)
elif overlay == rd.DebugOverlay.QuadOverdrawDraw or overlay == rd.DebugOverlay.QuadOverdrawPass:
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift, [1.0, 1.0, 1.0, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 30 >> shift, 36 >> shift, [0.0, 0.0, 0.0, 0.0], sub=sub)
self.check_pixel_value(overlay_id, 70 >> shift, 20 >> shift, [0.0, 0.0, 0.0, 0.0], sub=sub)
self.check_pixel_value(overlay_id, 50 >> shift, 45 >> shift, [2.0, 2.0, 2.0, 2.0], sub=sub)
elif overlay == rd.DebugOverlay.TriangleSizeDraw or overlay == rd.DebugOverlay.TriangleSizePass:
if mip == 2:
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift, [585.0, 585.0, 585.0, 1.0], sub=sub)
else:
self.check_pixel_value(overlay_id, 50 >> shift, 36 >> shift, [151.75, 151.75, 151.75, 1.0], sub=sub)
self.check_pixel_value(overlay_id, 30 >> shift, 36 >> shift, [0.0, 0.0, 0.0, 0.0], sub=sub)
self.check_pixel_value(overlay_id, 70 >> shift, 34 >> shift, [0.0, 0.0, 0.0, 0.0], sub=sub)
self.check_pixel_value(overlay_id, 70 >> shift, 20 >> shift, [0.0, 0.0, 0.0, 0.0], sub=sub)
if mip == 2:
self.check_pixel_value(overlay_id, 50 >> shift, 45 >> shift, [117.0, 117.0, 117.0, 1.0], sub=sub)
else:
self.check_pixel_value(overlay_id, 50 >> shift, 45 >> shift, [30.359375, 30.359375, 30.359375, 1.0], sub=sub)
rdtest.log.success("Picked values are correct for mip {} overlay {}".format(sub.mip, str(overlay)))
out.Shutdown()
def check_capture(self):
fill = self.find_action("vkCmdFillBuffer")
self.check(fill is not None)
buffer_usage = {}
for usage in self.controller.GetUsage(fill.copyDestination):
usage: rd.EventUsage
if usage.eventId not in buffer_usage:
buffer_usage[usage.eventId] = []
buffer_usage[usage.eventId].append(usage.usage)
# The texture is the backbuffer
tex = self.get_last_action().copyDestination
for level in ["Primary", "Secondary"]:
rdtest.log.print("Checking {} indirect calls".format(level))
final = self.find_action("{}: Final".format(level))
indirect_count_root = self.find_action(
"{}: KHR_action_indirect_count".format(level))
self.controller.SetFrameEvent(final.eventId, False)
# Check the top row, non indirect count and always present
self.check_pixel_value(tex, 60, 60, [1.0, 0.0, 0.0, 1.0])
self.check_pixel_value(tex, 100, 60, [0.0, 0.0, 1.0, 1.0])
self.check_pixel_value(tex, 145, 35, [1.0, 1.0, 0.0, 1.0])
self.check_pixel_value(tex, 205, 35, [0.0, 1.0, 1.0, 1.0])
# if present, check bottom row of indirect count as well as post-count calls
if indirect_count_root is not None:
self.check_pixel_value(tex, 60, 220, [0.0, 1.0, 0.0, 1.0])
self.check_pixel_value(tex, 100, 220, [1.0, 0.0, 1.0, 1.0])
self.check_pixel_value(tex, 145, 185, [0.5, 1.0, 0.0, 1.0])
self.check_pixel_value(tex, 205, 185, [0.5, 0.0, 1.0, 1.0])
self.check_pixel_value(tex, 340, 40, [1.0, 0.5, 0.0, 1.0])
self.check_pixel_value(tex, 340, 115, [1.0, 0.5, 0.5, 1.0])
self.check_pixel_value(tex, 340, 190, [1.0, 0.0, 0.5, 1.0])
dispatches = self.find_action("{}: Dispatches".format(level))
# Set up a ReplayOutput and TextureSave for quickly testing the action highlight overlay
self.out: rd.ReplayOutput = self.controller.CreateOutput(
rd.CreateHeadlessWindowingData(100, 100),
rd.ReplayOutputType.Texture)
self.check(self.out is not None)
# Rewind to the start of the capture
action: rd.ActionDescription = dispatches.children[0]
while action.previous is not None:
action = action.previous
# Ensure we can select all actions
while action is not None:
self.controller.SetFrameEvent(action.eventId, False)
action = action.next
rdtest.log.success("Selected all {} actions".format(level))
self.check(dispatches
and len(real_action_children(dispatches)) == 3)
self.check(dispatches.children[0].dispatchDimension == (0, 0, 0))
self.check(dispatches.children[1].dispatchDimension == (1, 1, 1))
self.check(dispatches.children[2].dispatchDimension == (3, 4, 5))
rdtest.log.success(
"{} Indirect dispatches are the correct dimensions".format(
level))
self.controller.SetFrameEvent(dispatches.children[2].eventId,
False)
pipe: rd.PipeState = self.controller.GetPipelineState()
ssbo: rd.BoundResource = pipe.GetReadWriteResources(
rd.ShaderStage.Compute)[0].resources[0]
data: bytes = self.controller.GetBufferData(ssbo.resourceId, 0, 0)
rdtest.log.print("Got {} bytes of uints".format(len(data)))
uints = [
struct.unpack_from('=4L', data, offs)
for offs in range(0, len(data), 16)
]
for x in range(0, 6): # 3 groups of 2 threads each
for y in range(0, 8): # 3 groups of 2 threads each
for z in range(0, 5): # 5 groups of 1 thread each
idx = 100 + z * 8 * 6 + y * 6 + x
if not rdtest.value_compare(uints[idx],
[x, y, z, 12345]):
raise rdtest.TestFailureException(
'expected thread index data @ {},{},{}: {} is not as expected: {}'
.format(x, y, z, uints[idx], [x, y, z, 12345]))
rdtest.log.success(
"Dispatched buffer contents are as expected for {}".format(
level))
empties = self.find_action("{}: Empty draws".format(level))
self.check(empties and len(real_action_children(empties)) == 2)
action: rd.ActionDescription
for action in real_action_children(empties):
self.check(action.numIndices == 0)
self.check(action.numInstances == 0)
self.controller.SetFrameEvent(action.eventId, False)
# Check that we have empty PostVS
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut,
0, 1)
self.check(len(postvs_data) == 0)
# No samples should be passing in the empties
self.check_overlay([])
rdtest.log.success("{} empty actions are empty".format(level))
indirects = self.find_action("{}: Indirect draws".format(level))
self.check('vkCmdDrawIndirect' in indirects.children[0].customName)
self.check(
'vkCmdDrawIndexedIndirect' in indirects.children[1].customName)
self.check(len(real_action_children(indirects.children[1])) == 2)
rdtest.log.success(
"Correct number of {} indirect draws".format(level))
# vkCmdDrawIndirect(...)
action = indirects.children[0]
self.check(action.numIndices == 3)
self.check(action.numInstances == 2)
self.controller.SetFrameEvent(action.eventId, False)
self.check(
rd.ResourceUsage.Indirect in buffer_usage[action.eventId])
# Check that we have PostVS as expected
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut)
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex_var.gl_Position': [-0.8, -0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex_var.gl_Position': [-0.7, -0.8, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex_var.gl_Position': [-0.6, -0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay([(60, 40)])
rdtest.log.success("{} {} is as expected".format(
level, action.customName))
self.check(rd.ResourceUsage.Indirect in buffer_usage[
indirects.children[1].eventId])
# vkCmdDrawIndexedIndirect[0](...)
action = indirects.children[1].children[0]
self.check(action.numIndices == 3)
self.check(action.numInstances == 3)
self.controller.SetFrameEvent(action.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 6,
'gl_PerVertex_var.gl_Position': [-0.6, -0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 7,
'gl_PerVertex_var.gl_Position': [-0.5, -0.8, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 8,
'gl_PerVertex_var.gl_Position': [-0.4, -0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay([(100, 40)])
rdtest.log.success("{} {} is as expected".format(
level, action.customName))
# vkCmdDrawIndexedIndirect[1](...)
action = indirects.children[1].children[1]
self.check(action.numIndices == 6)
self.check(action.numInstances == 2)
self.controller.SetFrameEvent(action.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut)
postvs_ref = {
0: {
'vtx': 0,
'idx': 9,
'gl_PerVertex_var.gl_Position': [-0.4, -0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 10,
'gl_PerVertex_var.gl_Position': [-0.3, -0.8, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 11,
'gl_PerVertex_var.gl_Position': [-0.2, -0.8, 0.0, 1.0]
},
3: {
'vtx': 3,
'idx': 12,
'gl_PerVertex_var.gl_Position': [-0.1, -0.5, 0.0, 1.0]
},
4: {
'vtx': 4,
'idx': 13,
'gl_PerVertex_var.gl_Position': [0.0, -0.8, 0.0, 1.0]
},
5: {
'vtx': 5,
'idx': 14,
'gl_PerVertex_var.gl_Position': [0.1, -0.8, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay([(140, 40), (200, 40)])
rdtest.log.success("{} {} is as expected".format(
level, action.customName))
if indirect_count_root is not None:
self.check(indirect_count_root.children[0].customName ==
'{}: Empty count draws'.format(level))
self.check(indirect_count_root.children[1].customName ==
'{}: Indirect count draws'.format(level))
empties = indirect_count_root.children[0]
self.check(empties and len(real_action_children(empties)) == 3)
action: rd.ActionDescription
for action in real_action_children(empties.children):
self.check(action.numIndices == 0)
self.check(action.numInstances == 0)
self.controller.SetFrameEvent(action.eventId, False)
# Check that we have empty PostVS
postvs_data = self.get_postvs(action,
rd.MeshDataStage.VSOut, 0, 1)
self.check(len(postvs_data) == 0)
self.check_overlay([], no_overlay=True)
# vkCmdDrawIndirectCountKHR
action_indirect = indirect_count_root.children[1].children[0]
self.check(rd.ResourceUsage.Indirect in buffer_usage[
action_indirect.eventId])
self.check(action_indirect
and len(real_action_children(action_indirect)) == 1)
# vkCmdDrawIndirectCountKHR[0]
action = action_indirect.children[0]
self.check(action.numIndices == 3)
self.check(action.numInstances == 4)
self.controller.SetFrameEvent(action.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 0,
'gl_PerVertex_var.gl_Position': [-0.8, 0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 1,
'gl_PerVertex_var.gl_Position': [-0.7, 0.2, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 2,
'gl_PerVertex_var.gl_Position': [-0.6, 0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay([(60, 190)])
rdtest.log.success("{} {} is as expected".format(
level, action.customName))
# vkCmdDrawIndexedIndirectCountKHR
action_indirect = indirect_count_root.children[1].children[1]
self.check(action_indirect
and len(real_action_children(action_indirect)) == 3)
# vkCmdDrawIndirectCountKHR[0]
action = action_indirect.children[0]
self.check(action.numIndices == 3)
self.check(action.numInstances == 1)
self.controller.SetFrameEvent(action.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 15,
'gl_PerVertex_var.gl_Position': [-0.6, 0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 16,
'gl_PerVertex_var.gl_Position': [-0.5, 0.2, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 17,
'gl_PerVertex_var.gl_Position': [-0.4, 0.5, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay([(100, 190)])
rdtest.log.success("{} {} is as expected".format(
level, action.customName))
# vkCmdDrawIndirectCountKHR[1]
action = action_indirect.children[1]
self.check(action.numIndices == 0)
self.check(action.numInstances == 0)
self.controller.SetFrameEvent(action.eventId, False)
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut)
self.check(len(postvs_data) == 0)
self.check_overlay([])
rdtest.log.success("{} {} is as expected".format(
level, action.customName))
# vkCmdDrawIndirectCountKHR[2]
action = action_indirect.children[2]
self.check(action.numIndices == 6)
self.check(action.numInstances == 2)
self.controller.SetFrameEvent(action.eventId, False)
# Check that we have PostVS as expected
postvs_data = self.get_postvs(action, rd.MeshDataStage.VSOut)
# These indices are the *output* indices, which have been rebased/remapped, so are not the same as the input
# indices
postvs_ref = {
0: {
'vtx': 0,
'idx': 18,
'gl_PerVertex_var.gl_Position': [-0.4, 0.5, 0.0, 1.0]
},
1: {
'vtx': 1,
'idx': 19,
'gl_PerVertex_var.gl_Position': [-0.3, 0.2, 0.0, 1.0]
},
2: {
'vtx': 2,
'idx': 20,
'gl_PerVertex_var.gl_Position': [-0.2, 0.2, 0.0, 1.0]
},
3: {
'vtx': 3,
'idx': 21,
'gl_PerVertex_var.gl_Position': [-0.1, 0.5, 0.0, 1.0]
},
4: {
'vtx': 4,
'idx': 22,
'gl_PerVertex_var.gl_Position': [0.0, 0.2, 0.0, 1.0]
},
5: {
'vtx': 5,
'idx': 23,
'gl_PerVertex_var.gl_Position': [0.1, 0.2, 0.0, 1.0]
},
}
self.check_mesh_data(postvs_ref, postvs_data)
self.check(len(postvs_data) == len(
postvs_ref)) # We shouldn't have any extra vertices
self.check_overlay([(140, 190), (200, 190)])
rdtest.log.success("{} {} is as expected".format(
level, action.customName))
# Now check that the draws post-count are correctly highlighted
self.controller.SetFrameEvent(
self.find_action(
"{}: Post-count 1".format(level)).children[0].eventId,
False)
self.check_overlay([(340, 40)])
self.controller.SetFrameEvent(
self.find_action(
"{}: Post-count 2".format(level)).children[0].eventId,
False)
self.check_overlay([(340, 190)])
self.controller.SetFrameEvent(
self.find_action(
"{}: Post-count 3".format(level)).children[0].eventId,
False)
self.check_overlay([(340, 115)])
else:
rdtest.log.print("KHR_action_indirect_count not tested")
def check_capture(self):
# Make an output so we can pick pixels
out: rd.ReplayOutput = self.controller.CreateOutput(rd.CreateHeadlessWindowingData(100, 100), rd.ReplayOutputType.Texture)
self.check(out is not None)
draw = self.find_draw("Draw")
self.controller.SetFrameEvent(draw.eventId, False)
pipe: rd.PipeState = self.controller.GetPipelineState()
bind: rd.ShaderBindpointMapping = pipe.GetBindpointMapping(rd.ShaderStage.Fragment)
texs: List[rd.BoundResourceArray] = pipe.GetReadOnlyResources(rd.ShaderStage.Fragment)
if len(bind.readOnlyResources) != 2:
raise rdtest.TestFailureException(
"Expected 2 textures bound, not {}".format(len(bind.readOnlyResources)))
if bind.readOnlyResources[0].bind != 2:
raise rdtest.TestFailureException(
"First texture should be on slot 2, not {}".format(bind.readOnlyResources[0].bind))
id = texs[2].resources[0].resourceId
tex_details = self.get_texture(id)
res_details = self.get_resource(id)
if res_details.name != "Red 2D":
raise rdtest.TestFailureException("First texture should be Red 2D texture, not {}".format(res_details.name))
if tex_details.dimension != 2:
raise rdtest.TestFailureException(
"First texture should be 2D texture, not {}".format(tex_details.dimension))
if tex_details.width != 8 or tex_details.height != 8:
raise rdtest.TestFailureException(
"First texture should be 8x8, not {}x{}".format(tex_details.width, tex_details.height))
data = self.controller.GetTextureData(id, 0, 0)
first_pixel = struct.unpack_from("BBBB", data, 0)
if not rdtest.value_compare(first_pixel, (255, 0, 0, 255)):
raise rdtest.TestFailureException("Texture should contain red, not {}".format(first_pixel))
rdtest.log.success("First texture is as expected")
if bind.readOnlyResources[1].bind != 3:
raise rdtest.TestFailureException(
"First texture should be on slot 3, not {}".format(texs[0].bindPoint.bind))
id = texs[3].resources[0].resourceId
tex_details = self.get_texture(id)
res_details = self.get_resource(id)
if res_details.name != "Green 3D":
raise rdtest.TestFailureException(
"First texture should be Green 3D texture, not {}".format(res_details.name))
if tex_details.dimension != 3:
raise rdtest.TestFailureException(
"First texture should be 3D texture, not {}".format(tex_details.dimension))
if tex_details.width != 4 or tex_details.height != 4 or tex_details.depth != 4:
raise rdtest.TestFailureException(
"First texture should be 4x4x4, not {}x{}x{}".format(tex_details.width, tex_details.height,
tex_details.depth))
data = self.controller.GetTextureData(id, 0, 0)
first_pixel = struct.unpack_from("BBBB", data, 0)
if not rdtest.value_compare(first_pixel, (0, 255, 0, 255)):
raise rdtest.TestFailureException("Texture should contain green, not {}".format(first_pixel))
rdtest.log.success("Second texture is as expected")
tex = rd.TextureDisplay()
tex.resourceId = pipe.GetOutputTargets()[0].resourceId
out.SetTextureDisplay(tex)
tex_details = self.get_texture(tex.resourceId)
picked: rd.PixelValue = out.PickPixel(tex.resourceId, False,
int(tex_details.width / 2), int(tex_details.height / 2), 0, 0, 0)
if not rdtest.value_compare(picked.floatValue, [1.0, 1.0, 0.0, 0.2]):
raise rdtest.TestFailureException("Picked value {} doesn't match expectation".format(picked.floatValue))
rdtest.log.success("Picked value is as expected")
out.Shutdown()