already_AddRefed<SharedThreadPool> GetMediaThreadPool(MediaThreadType aType) {
const char* name;
switch (aType) {
case MediaThreadType::PLATFORM_DECODER:
name = "MediaPDecoder";
break;
case MediaThreadType::MSG_CONTROL:
name = "MSGControl";
break;
case MediaThreadType::WEBRTC_DECODER:
name = "WebRTCPD";
break;
default:
MOZ_FALLTHROUGH_ASSERT("Unexpected MediaThreadType");
case MediaThreadType::PLAYBACK:
name = "MediaPlayback";
break;
}
static const uint32_t kMediaThreadPoolDefaultCount = 4;
RefPtr<SharedThreadPool> pool = SharedThreadPool::Get(
nsDependentCString(name), kMediaThreadPoolDefaultCount);
// Ensure a larger stack for platform decoder threads
if (aType == MediaThreadType::PLATFORM_DECODER) {
const uint32_t minStackSize = 512 * 1024;
uint32_t stackSize;
MOZ_ALWAYS_SUCCEEDS(pool->GetThreadStackSize(&stackSize));
if (stackSize < minStackSize) {
MOZ_ALWAYS_SUCCEEDS(pool->SetThreadStackSize(minStackSize));
}
}
return pool.forget();
}
already_AddRefed<SharedThreadPool> GetMediaThreadPool(MediaThreadType aType)
{
const char *name;
switch (aType) {
case MediaThreadType::PLATFORM_DECODER:
name = "MediaPDecoder";
break;
default:
MOZ_FALLTHROUGH_ASSERT("Unexpected MediaThreadType");
case MediaThreadType::PLAYBACK:
name = "MediaPlayback";
break;
}
return SharedThreadPool::
Get(nsDependentCString(name), MediaPrefs::MediaThreadPoolDefaultCount());
}
void
WebAudioDecodeJob::OnFailure(ErrorCode aErrorCode)
{
MOZ_ASSERT(NS_IsMainThread());
const char* errorMessage;
switch (aErrorCode) {
case NoError:
MOZ_FALLTHROUGH_ASSERT("Who passed NoError to OnFailure?");
// Fall through to get some sort of a sane error message if this actually
// happens at runtime.
case UnknownError:
errorMessage = "MediaDecodeAudioDataUnknownError";
break;
case UnknownContent:
errorMessage = "MediaDecodeAudioDataUnknownContentType";
break;
case InvalidContent:
errorMessage = "MediaDecodeAudioDataInvalidContent";
break;
case NoAudio:
errorMessage = "MediaDecodeAudioDataNoAudio";
break;
}
nsIDocument* doc = nullptr;
if (nsPIDOMWindowInner* pWindow = mContext->GetParentObject()) {
doc = pWindow->GetExtantDoc();
}
nsContentUtils::ReportToConsole(nsIScriptError::errorFlag,
NS_LITERAL_CSTRING("Media"),
doc,
nsContentUtils::eDOM_PROPERTIES,
errorMessage);
// Ignore errors in calling the callback, since there is not much that we can
// do about it here.
if (mFailureCallback) {
mFailureCallback->Call();
}
mPromise->MaybeReject(NS_ERROR_DOM_ENCODING_NOT_SUPPORTED_ERR);
mContext->RemoveFromDecodeQueue(this);
}
// static
NativeKeyBindings*
NativeKeyBindings::GetInstance(NativeKeyBindingsType aType)
{
switch (aType) {
case nsIWidget::NativeKeyBindingsForSingleLineEditor:
if (!sInstanceForSingleLineEditor) {
sInstanceForSingleLineEditor = new NativeKeyBindings();
sInstanceForSingleLineEditor->Init(aType);
}
return sInstanceForSingleLineEditor;
default:
// fallback to multiline editor case in release build
MOZ_FALLTHROUGH_ASSERT("aType is invalid or not yet implemented");
case nsIWidget::NativeKeyBindingsForMultiLineEditor:
case nsIWidget::NativeKeyBindingsForRichTextEditor:
if (!sInstanceForMultiLineEditor) {
sInstanceForMultiLineEditor = new NativeKeyBindings();
sInstanceForMultiLineEditor->Init(aType);
}
return sInstanceForMultiLineEditor;
}
}
//******************************************************************************
// DoBlend gets called when the timer for animation get fired and we have to
// update the composited frame of the animation.
bool
FrameAnimator::DoBlend(IntRect* aDirtyRect,
uint32_t aPrevFrameIndex,
uint32_t aNextFrameIndex)
{
RawAccessFrameRef prevFrame = GetRawFrame(aPrevFrameIndex);
RawAccessFrameRef nextFrame = GetRawFrame(aNextFrameIndex);
MOZ_ASSERT(prevFrame && nextFrame, "Should have frames here");
AnimationData prevFrameData = prevFrame->GetAnimationData();
if (prevFrameData.mDisposalMethod == DisposalMethod::RESTORE_PREVIOUS &&
!mCompositingPrevFrame) {
prevFrameData.mDisposalMethod = DisposalMethod::CLEAR;
}
IntRect prevRect = prevFrameData.mBlendRect
? prevFrameData.mRect.Intersect(*prevFrameData.mBlendRect)
: prevFrameData.mRect;
bool isFullPrevFrame = prevRect.x == 0 && prevRect.y == 0 &&
prevRect.width == mSize.width &&
prevRect.height == mSize.height;
// Optimization: DisposeClearAll if the previous frame is the same size as
// container and it's clearing itself
if (isFullPrevFrame &&
(prevFrameData.mDisposalMethod == DisposalMethod::CLEAR)) {
prevFrameData.mDisposalMethod = DisposalMethod::CLEAR_ALL;
}
AnimationData nextFrameData = nextFrame->GetAnimationData();
IntRect nextRect = nextFrameData.mBlendRect
? nextFrameData.mRect.Intersect(*nextFrameData.mBlendRect)
: nextFrameData.mRect;
bool isFullNextFrame = nextRect.x == 0 && nextRect.y == 0 &&
nextRect.width == mSize.width &&
nextRect.height == mSize.height;
if (!nextFrame->GetIsPaletted()) {
// Optimization: Skip compositing if the previous frame wants to clear the
// whole image
if (prevFrameData.mDisposalMethod == DisposalMethod::CLEAR_ALL) {
aDirtyRect->SetRect(0, 0, mSize.width, mSize.height);
return true;
}
// Optimization: Skip compositing if this frame is the same size as the
// container and it's fully drawing over prev frame (no alpha)
if (isFullNextFrame &&
(nextFrameData.mDisposalMethod != DisposalMethod::RESTORE_PREVIOUS) &&
!nextFrameData.mHasAlpha) {
aDirtyRect->SetRect(0, 0, mSize.width, mSize.height);
return true;
}
}
// Calculate area that needs updating
switch (prevFrameData.mDisposalMethod) {
default:
MOZ_FALLTHROUGH_ASSERT("Unexpected DisposalMethod");
case DisposalMethod::NOT_SPECIFIED:
case DisposalMethod::KEEP:
*aDirtyRect = nextRect;
break;
case DisposalMethod::CLEAR_ALL:
// Whole image container is cleared
aDirtyRect->SetRect(0, 0, mSize.width, mSize.height);
break;
case DisposalMethod::CLEAR:
// Calc area that needs to be redrawn (the combination of previous and
// this frame)
// XXX - This could be done with multiple framechanged calls
// Having prevFrame way at the top of the image, and nextFrame
// way at the bottom, and both frames being small, we'd be
// telling framechanged to refresh the whole image when only two
// small areas are needed.
aDirtyRect->UnionRect(nextRect, prevRect);
break;
case DisposalMethod::RESTORE_PREVIOUS:
aDirtyRect->SetRect(0, 0, mSize.width, mSize.height);
break;
}
// Optimization:
// Skip compositing if the last composited frame is this frame
// (Only one composited frame was made for this animation. Example:
// Only Frame 3 of a 10 frame image required us to build a composite frame
// On the second loop, we do not need to rebuild the frame
// since it's still sitting in compositingFrame)
if (mLastCompositedFrameIndex == int32_t(aNextFrameIndex)) {
return true;
}
bool needToBlankComposite = false;
// Create the Compositing Frame
if (!mCompositingFrame) {
RefPtr<imgFrame> newFrame = new imgFrame;
nsresult rv = newFrame->InitForDecoder(mSize,
SurfaceFormat::B8G8R8A8);
if (NS_FAILED(rv)) {
mCompositingFrame.reset();
return false;
}
mCompositingFrame = newFrame->RawAccessRef();
needToBlankComposite = true;
} else if (int32_t(aNextFrameIndex) != mLastCompositedFrameIndex+1) {
// If we are not drawing on top of last composited frame,
// then we are building a new composite frame, so let's clear it first.
needToBlankComposite = true;
}
AnimationData compositingFrameData = mCompositingFrame->GetAnimationData();
// More optimizations possible when next frame is not transparent
// But if the next frame has DisposalMethod::RESTORE_PREVIOUS,
// this "no disposal" optimization is not possible,
// because the frame in "after disposal operation" state
// needs to be stored in compositingFrame, so it can be
// copied into compositingPrevFrame later.
bool doDisposal = true;
if (!nextFrameData.mHasAlpha &&
nextFrameData.mDisposalMethod != DisposalMethod::RESTORE_PREVIOUS) {
if (isFullNextFrame) {
// Optimization: No need to dispose prev.frame when
// next frame is full frame and not transparent.
doDisposal = false;
// No need to blank the composite frame
needToBlankComposite = false;
} else {
if ((prevRect.x >= nextRect.x) && (prevRect.y >= nextRect.y) &&
(prevRect.x + prevRect.width <= nextRect.x + nextRect.width) &&
(prevRect.y + prevRect.height <= nextRect.y + nextRect.height)) {
// Optimization: No need to dispose prev.frame when
// next frame fully overlaps previous frame.
doDisposal = false;
}
}
}
if (doDisposal) {
// Dispose of previous: clear, restore, or keep (copy)
switch (prevFrameData.mDisposalMethod) {
case DisposalMethod::CLEAR:
if (needToBlankComposite) {
// If we just created the composite, it could have anything in its
// buffer. Clear whole frame
ClearFrame(compositingFrameData.mRawData,
compositingFrameData.mRect);
} else {
// Only blank out previous frame area (both color & Mask/Alpha)
ClearFrame(compositingFrameData.mRawData,
compositingFrameData.mRect,
prevRect);
}
break;
case DisposalMethod::CLEAR_ALL:
ClearFrame(compositingFrameData.mRawData,
compositingFrameData.mRect);
break;
case DisposalMethod::RESTORE_PREVIOUS:
// It would be better to copy only the area changed back to
// compositingFrame.
if (mCompositingPrevFrame) {
AnimationData compositingPrevFrameData =
mCompositingPrevFrame->GetAnimationData();
CopyFrameImage(compositingPrevFrameData.mRawData,
compositingPrevFrameData.mRect,
compositingFrameData.mRawData,
compositingFrameData.mRect);
// destroy only if we don't need it for this frame's disposal
if (nextFrameData.mDisposalMethod !=
DisposalMethod::RESTORE_PREVIOUS) {
mCompositingPrevFrame.reset();
}
} else {
ClearFrame(compositingFrameData.mRawData,
compositingFrameData.mRect);
}
break;
default:
MOZ_FALLTHROUGH_ASSERT("Unexpected DisposalMethod");
case DisposalMethod::NOT_SPECIFIED:
case DisposalMethod::KEEP:
// Copy previous frame into compositingFrame before we put the new
// frame on top
// Assumes that the previous frame represents a full frame (it could be
// smaller in size than the container, as long as the frame before it
// erased itself)
// Note: Frame 1 never gets into DoBlend(), so (aNextFrameIndex - 1)
// will always be a valid frame number.
if (mLastCompositedFrameIndex != int32_t(aNextFrameIndex - 1)) {
if (isFullPrevFrame && !prevFrame->GetIsPaletted()) {
// Just copy the bits
CopyFrameImage(prevFrameData.mRawData,
prevRect,
compositingFrameData.mRawData,
compositingFrameData.mRect);
} else {
if (needToBlankComposite) {
// Only blank composite when prev is transparent or not full.
if (prevFrameData.mHasAlpha || !isFullPrevFrame) {
ClearFrame(compositingFrameData.mRawData,
compositingFrameData.mRect);
}
}
DrawFrameTo(prevFrameData.mRawData, prevFrameData.mRect,
prevFrameData.mPaletteDataLength,
prevFrameData.mHasAlpha,
compositingFrameData.mRawData,
compositingFrameData.mRect,
prevFrameData.mBlendMethod,
prevFrameData.mBlendRect);
}
}
}
} else if (needToBlankComposite) {
// If we just created the composite, it could have anything in its
// buffers. Clear them
ClearFrame(compositingFrameData.mRawData,
compositingFrameData.mRect);
}
// Check if the frame we are composing wants the previous image restored after
// it is done. Don't store it (again) if last frame wanted its image restored
// too
if ((nextFrameData.mDisposalMethod == DisposalMethod::RESTORE_PREVIOUS) &&
(prevFrameData.mDisposalMethod != DisposalMethod::RESTORE_PREVIOUS)) {
// We are storing the whole image.
// It would be better if we just stored the area that nextFrame is going to
// overwrite.
if (!mCompositingPrevFrame) {
RefPtr<imgFrame> newFrame = new imgFrame;
nsresult rv = newFrame->InitForDecoder(mSize,
SurfaceFormat::B8G8R8A8);
if (NS_FAILED(rv)) {
mCompositingPrevFrame.reset();
return false;
}
mCompositingPrevFrame = newFrame->RawAccessRef();
}
AnimationData compositingPrevFrameData =
mCompositingPrevFrame->GetAnimationData();
CopyFrameImage(compositingFrameData.mRawData,
compositingFrameData.mRect,
compositingPrevFrameData.mRawData,
compositingPrevFrameData.mRect);
mCompositingPrevFrame->Finish();
}
// blit next frame into it's correct spot
DrawFrameTo(nextFrameData.mRawData, nextFrameData.mRect,
nextFrameData.mPaletteDataLength,
nextFrameData.mHasAlpha,
compositingFrameData.mRawData,
compositingFrameData.mRect,
nextFrameData.mBlendMethod,
nextFrameData.mBlendRect);
// Tell the image that it is fully 'downloaded'.
mCompositingFrame->Finish();
mLastCompositedFrameIndex = int32_t(aNextFrameIndex);
return true;
}
void
DecoderDoctorDocumentWatcher::SynthesizeAnalysis()
{
MOZ_ASSERT(NS_IsMainThread());
nsAutoString playableFormats;
nsAutoString unplayableFormats;
// Subsets of unplayableFormats that require a specific platform decoder:
#if defined(XP_WIN)
nsAutoString formatsRequiringWMF;
#endif
#if defined(MOZ_FFMPEG)
nsAutoString formatsRequiringFFMpeg;
#endif
nsAutoString supportedKeySystems;
nsAutoString unsupportedKeySystems;
DecoderDoctorDiagnostics::KeySystemIssue lastKeySystemIssue =
DecoderDoctorDiagnostics::eUnset;
// Only deal with one decode error per document (the first one found).
const MediaResult* firstDecodeError = nullptr;
const nsString* firstDecodeErrorMediaSrc = nullptr;
// Only deal with one decode warning per document (the first one found).
const MediaResult* firstDecodeWarning = nullptr;
const nsString* firstDecodeWarningMediaSrc = nullptr;
for (const auto& diag : mDiagnosticsSequence) {
switch (diag.mDecoderDoctorDiagnostics.Type()) {
case DecoderDoctorDiagnostics::eFormatSupportCheck:
if (diag.mDecoderDoctorDiagnostics.CanPlay()) {
AppendToFormatsList(playableFormats,
diag.mDecoderDoctorDiagnostics.Format());
} else {
AppendToFormatsList(unplayableFormats,
diag.mDecoderDoctorDiagnostics.Format());
#if defined(XP_WIN)
if (diag.mDecoderDoctorDiagnostics.DidWMFFailToLoad()) {
AppendToFormatsList(formatsRequiringWMF,
diag.mDecoderDoctorDiagnostics.Format());
}
#endif
#if defined(MOZ_FFMPEG)
if (diag.mDecoderDoctorDiagnostics.DidFFmpegFailToLoad()) {
AppendToFormatsList(formatsRequiringFFMpeg,
diag.mDecoderDoctorDiagnostics.Format());
}
#endif
}
break;
case DecoderDoctorDiagnostics::eMediaKeySystemAccessRequest:
if (diag.mDecoderDoctorDiagnostics.IsKeySystemSupported()) {
AppendToFormatsList(supportedKeySystems,
diag.mDecoderDoctorDiagnostics.KeySystem());
} else {
AppendToFormatsList(unsupportedKeySystems,
diag.mDecoderDoctorDiagnostics.KeySystem());
DecoderDoctorDiagnostics::KeySystemIssue issue =
diag.mDecoderDoctorDiagnostics.GetKeySystemIssue();
if (issue != DecoderDoctorDiagnostics::eUnset) {
lastKeySystemIssue = issue;
}
}
break;
case DecoderDoctorDiagnostics::eEvent:
MOZ_ASSERT_UNREACHABLE("Events shouldn't be stored for processing.");
break;
case DecoderDoctorDiagnostics::eDecodeError:
if (!firstDecodeError) {
firstDecodeError = &diag.mDecoderDoctorDiagnostics.DecodeIssue();
firstDecodeErrorMediaSrc =
&diag.mDecoderDoctorDiagnostics.DecodeIssueMediaSrc();
}
break;
case DecoderDoctorDiagnostics::eDecodeWarning:
if (!firstDecodeWarning) {
firstDecodeWarning = &diag.mDecoderDoctorDiagnostics.DecodeIssue();
firstDecodeWarningMediaSrc =
&diag.mDecoderDoctorDiagnostics.DecodeIssueMediaSrc();
}
break;
default:
MOZ_ASSERT_UNREACHABLE("Unhandled DecoderDoctorDiagnostics type");
break;
}
}
// Check if issues have been solved, by finding if some now-playable
// key systems or formats were previously recorded as having issues.
if (!supportedKeySystems.IsEmpty() || !playableFormats.IsEmpty()) {
DD_DEBUG("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - supported key systems '%s', playable formats '%s'; See if they show issues have been solved...",
this, mDocument,
NS_ConvertUTF16toUTF8(supportedKeySystems).Data(),
NS_ConvertUTF16toUTF8(playableFormats).get());
const nsAString* workingFormatsArray[] =
{ &supportedKeySystems, &playableFormats };
// For each type of notification, retrieve the pref that contains formats/
// key systems with issues.
for (const NotificationAndReportStringId* id :
sAllNotificationsAndReportStringIds) {
nsAutoCString formatsPref("media.decoder-doctor.");
formatsPref += id->mReportStringId;
formatsPref += ".formats";
nsAutoString formatsWithIssues;
Preferences::GetString(formatsPref.Data(), formatsWithIssues);
if (formatsWithIssues.IsEmpty()) {
continue;
}
// See if that list of formats-with-issues contains any formats that are
// now playable/supported.
bool solved = false;
for (const nsAString* workingFormats : workingFormatsArray) {
for (const auto& workingFormat : MakeStringListRange(*workingFormats)) {
if (FormatsListContains(formatsWithIssues, workingFormat)) {
// This now-working format used not to work -> Report solved issue.
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - %s solved ('%s' now works, it was in pref(%s)='%s')",
this, mDocument, id->mReportStringId,
NS_ConvertUTF16toUTF8(workingFormat).get(),
formatsPref.Data(),
NS_ConvertUTF16toUTF8(formatsWithIssues).get());
ReportAnalysis(mDocument, *id, true, workingFormat);
// This particular Notification&ReportId has been solved, no need
// to keep looking at other keysys/formats that might solve it too.
solved = true;
break;
}
}
if (solved) {
break;
}
}
if (!solved) {
DD_DEBUG("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - %s not solved (pref(%s)='%s')",
this, mDocument, id->mReportStringId, formatsPref.Data(),
NS_ConvertUTF16toUTF8(formatsWithIssues).get());
}
}
}
// Look at Key System issues first, as they take precedence over format checks.
if (!unsupportedKeySystems.IsEmpty() && supportedKeySystems.IsEmpty()) {
// No supported key systems!
switch (lastKeySystemIssue) {
case DecoderDoctorDiagnostics::eWidevineWithNoWMF:
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - unsupported key systems: %s, Widevine without WMF",
this, mDocument, NS_ConvertUTF16toUTF8(unsupportedKeySystems).get());
ReportAnalysis(mDocument, sMediaWidevineNoWMF, false,
unsupportedKeySystems);
return;
default:
break;
}
}
// Next, check playability of requested formats.
if (!unplayableFormats.IsEmpty()) {
// Some requested formats cannot be played.
if (playableFormats.IsEmpty()) {
// No requested formats can be played. See if we can help the user, by
// going through expected decoders from most to least desirable.
#if defined(XP_WIN)
if (!formatsRequiringWMF.IsEmpty()) {
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - unplayable formats: %s -> Cannot play media because WMF was not found",
this, mDocument, NS_ConvertUTF16toUTF8(formatsRequiringWMF).get());
ReportAnalysis(mDocument, sMediaWMFNeeded, false, formatsRequiringWMF);
return;
}
#endif
#if defined(MOZ_FFMPEG)
if (!formatsRequiringFFMpeg.IsEmpty()) {
switch (FFmpegRuntimeLinker::LinkStatusCode()) {
case FFmpegRuntimeLinker::LinkStatus_INVALID_FFMPEG_CANDIDATE:
case FFmpegRuntimeLinker::LinkStatus_UNUSABLE_LIBAV57:
case FFmpegRuntimeLinker::LinkStatus_INVALID_LIBAV_CANDIDATE:
case FFmpegRuntimeLinker::LinkStatus_OBSOLETE_FFMPEG:
case FFmpegRuntimeLinker::LinkStatus_OBSOLETE_LIBAV:
case FFmpegRuntimeLinker::LinkStatus_INVALID_CANDIDATE:
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - unplayable formats: %s -> Cannot play media because of unsupported %s (Reason: %s)",
this, mDocument,
NS_ConvertUTF16toUTF8(formatsRequiringFFMpeg).get(),
FFmpegRuntimeLinker::LinkStatusLibraryName(),
FFmpegRuntimeLinker::LinkStatusString());
ReportAnalysis(mDocument, sUnsupportedLibavcodec,
false, formatsRequiringFFMpeg);
return;
case FFmpegRuntimeLinker::LinkStatus_INIT:
MOZ_FALLTHROUGH_ASSERT("Unexpected LinkStatus_INIT");
case FFmpegRuntimeLinker::LinkStatus_SUCCEEDED:
MOZ_FALLTHROUGH_ASSERT("Unexpected LinkStatus_SUCCEEDED");
case FFmpegRuntimeLinker::LinkStatus_NOT_FOUND:
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - unplayable formats: %s -> Cannot play media because platform decoder was not found (Reason: %s)",
this, mDocument,
NS_ConvertUTF16toUTF8(formatsRequiringFFMpeg).get(),
FFmpegRuntimeLinker::LinkStatusString());
ReportAnalysis(mDocument, sMediaPlatformDecoderNotFound,
false, formatsRequiringFFMpeg);
return;
}
}
#endif
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - Cannot play media, unplayable formats: %s",
this, mDocument, NS_ConvertUTF16toUTF8(unplayableFormats).get());
ReportAnalysis(mDocument, sMediaCannotPlayNoDecoders,
false, unplayableFormats);
return;
}
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - Can play media, but no decoders for some requested formats: %s",
this, mDocument, NS_ConvertUTF16toUTF8(unplayableFormats).get());
if (Preferences::GetBool("media.decoder-doctor.verbose", false)) {
ReportAnalysis(mDocument, sMediaNoDecoders, false, unplayableFormats);
}
return;
}
if (firstDecodeError) {
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - Decode error: %s",
this, mDocument, firstDecodeError->Description().get());
ReportAnalysis(mDocument, sMediaDecodeError, false,
NS_LITERAL_STRING(""),
*firstDecodeError,
true, // aDecodeIssueIsError=true
mDocument->GetDocumentURI()->GetSpecOrDefault(),
*firstDecodeErrorMediaSrc);
return;
}
if (firstDecodeWarning) {
DD_INFO("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - Decode warning: %s",
this, mDocument, firstDecodeWarning->Description().get());
ReportAnalysis(mDocument, sMediaDecodeWarning, false,
NS_LITERAL_STRING(""),
*firstDecodeWarning,
false, // aDecodeIssueIsError=false
mDocument->GetDocumentURI()->GetSpecOrDefault(),
*firstDecodeWarningMediaSrc);
return;
}
DD_DEBUG("DecoderDoctorDocumentWatcher[%p, doc=%p]::SynthesizeAnalysis() - Can play media, decoders available for all requested formats",
this, mDocument);
}
