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fune/netwerk/protocol/http/HttpChannelChild.cpp

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/* -*- Mode: C++; tab-width: 8; indent-tabs-mode: nil; c-basic-offset: 2 -*- */
/* vim: set sw=2 ts=8 et tw=80 : */
/* This Source Code Form is subject to the terms of the Mozilla Public
* License, v. 2.0. If a copy of the MPL was not distributed with this
* file, You can obtain one at http://mozilla.org/MPL/2.0/. */
// HttpLog.h should generally be included first
#include "HttpLog.h"
#include "nsHttp.h"
#include "nsICacheEntry.h"
#include "mozilla/AntiTrackingCommon.h"
#include "mozilla/Unused.h"
#include "mozilla/dom/ContentChild.h"
#include "mozilla/dom/DocGroup.h"
#include "mozilla/dom/ServiceWorkerUtils.h"
#include "mozilla/dom/BrowserChild.h"
#include "mozilla/dom/TabGroup.h"
#include "mozilla/extensions/StreamFilterParent.h"
#include "mozilla/ipc/FileDescriptorSetChild.h"
#include "mozilla/ipc/IPCStreamUtils.h"
#include "mozilla/net/NeckoChild.h"
#include "mozilla/net/HttpChannelChild.h"
#include "mozilla/net/UrlClassifierCommon.h"
#include "mozilla/net/UrlClassifierFeatureFactory.h"
#include "AltDataOutputStreamChild.h"
#include "CookieServiceChild.h"
#include "HttpBackgroundChannelChild.h"
#include "nsCOMPtr.h"
#include "nsISupportsPrimitives.h"
#include "nsContentPolicyUtils.h"
#include "nsDOMNavigationTiming.h"
#include "nsGlobalWindow.h"
#include "nsStringStream.h"
#include "nsHttpChannel.h"
#include "nsHttpHandler.h"
#include "nsNetUtil.h"
#include "nsSerializationHelper.h"
#include "mozilla/Attributes.h"
#include "mozilla/dom/PerformanceStorage.h"
#include "mozilla/ipc/InputStreamUtils.h"
#include "mozilla/ipc/URIUtils.h"
#include "mozilla/ipc/BackgroundUtils.h"
#include "mozilla/net/ChannelDiverterChild.h"
#include "mozilla/net/DNS.h"
#include "SerializedLoadContext.h"
#include "nsInputStreamPump.h"
#include "InterceptedChannel.h"
#include "mozIThirdPartyUtil.h"
#include "nsContentSecurityManager.h"
#include "nsICompressConvStats.h"
#include "nsIDeprecationWarner.h"
#include "mozilla/dom/Document.h"
#include "nsIDOMWindowUtils.h"
#include "nsIEventTarget.h"
#include "nsIScriptError.h"
#include "nsRedirectHistoryEntry.h"
#include "nsSocketTransportService2.h"
#include "nsStreamUtils.h"
#include "nsThreadUtils.h"
#include "nsCORSListenerProxy.h"
#include "nsApplicationCache.h"
#include "ClassifierDummyChannel.h"
#ifdef MOZ_TASK_TRACER
# include "GeckoTaskTracer.h"
#endif
#ifdef MOZ_GECKO_PROFILER
# include "ProfilerMarkerPayload.h"
#endif
#include <functional>
using namespace mozilla::dom;
using namespace mozilla::ipc;
namespace mozilla {
namespace net {
NS_IMPL_ISUPPORTS(InterceptStreamListener, nsIStreamListener,
nsIRequestObserver, nsIProgressEventSink)
NS_IMETHODIMP
InterceptStreamListener::OnStartRequest(nsIRequest* aRequest) {
if (mOwner) {
mOwner->DoOnStartRequest(mOwner, nullptr);
}
return NS_OK;
}
NS_IMETHODIMP
InterceptStreamListener::OnStatus(nsIRequest* aRequest, nsISupports* aContext,
nsresult status, const char16_t* aStatusArg) {
if (mOwner) {
mOwner->DoOnStatus(mOwner, status);
}
return NS_OK;
}
NS_IMETHODIMP
InterceptStreamListener::OnProgress(nsIRequest* aRequest, nsISupports* aContext,
int64_t aProgress, int64_t aProgressMax) {
if (mOwner) {
mOwner->DoOnProgress(mOwner, aProgress, aProgressMax);
}
return NS_OK;
}
NS_IMETHODIMP
InterceptStreamListener::OnDataAvailable(nsIRequest* aRequest,
nsIInputStream* aInputStream,
uint64_t aOffset, uint32_t aCount) {
if (!mOwner) {
return NS_OK;
}
uint32_t loadFlags;
mOwner->GetLoadFlags(&loadFlags);
if (!(loadFlags & HttpBaseChannel::LOAD_BACKGROUND)) {
nsCOMPtr<nsIURI> uri;
mOwner->GetURI(getter_AddRefs(uri));
nsAutoCString host;
uri->GetHost(host);
OnStatus(mOwner, nullptr, NS_NET_STATUS_READING,
NS_ConvertUTF8toUTF16(host).get());
int64_t progress = aOffset + aCount;
OnProgress(mOwner, nullptr, progress, mOwner->mSynthesizedStreamLength);
}
mOwner->DoOnDataAvailable(mOwner, nullptr, aInputStream, aOffset, aCount);
return NS_OK;
}
NS_IMETHODIMP
InterceptStreamListener::OnStopRequest(nsIRequest* aRequest,
nsresult aStatusCode) {
if (mOwner) {
mOwner->DoPreOnStopRequest(aStatusCode);
mOwner->DoOnStopRequest(mOwner, aStatusCode, mContext);
}
Cleanup();
return NS_OK;
}
void InterceptStreamListener::Cleanup() {
mOwner = nullptr;
mContext = nullptr;
}
//-----------------------------------------------------------------------------
// HttpChannelChild
//-----------------------------------------------------------------------------
HttpChannelChild::HttpChannelChild()
: HttpAsyncAborter<HttpChannelChild>(this),
NeckoTargetHolder(nullptr),
mBgChildMutex("HttpChannelChild::BgChildMutex"),
mEventTargetMutex("HttpChannelChild::EventTargetMutex"),
mSynthesizedStreamLength(0),
mCacheEntryId(0),
mCacheKey(0),
mCacheFetchCount(0),
mCacheExpirationTime(nsICacheEntry::NO_EXPIRATION_TIME),
mDeletingChannelSent(false),
mUnknownDecoderInvolved(false),
mDivertingToParent(false),
mFlushedForDiversion(false),
mIsFromCache(false),
mIsRacing(false),
mCacheNeedToReportBytesReadInitialized(false),
mNeedToReportBytesRead(true),
mCacheEntryAvailable(false),
mAltDataCacheEntryAvailable(false),
mSendResumeAt(false),
mKeptAlive(false),
mIPCActorDeleted(false),
mSuspendSent(false),
mSynthesizedResponse(false),
mShouldInterceptSubsequentRedirect(false),
mRedirectingForSubsequentSynthesizedResponse(false),
mPostRedirectChannelShouldIntercept(false),
mPostRedirectChannelShouldUpgrade(false),
mShouldParentIntercept(false),
mSuspendParentAfterSynthesizeResponse(false) {
LOG(("Creating HttpChannelChild @%p\n", this));
mChannelCreationTime = PR_Now();
mChannelCreationTimestamp = TimeStamp::Now();
mLastStatusReported =
mChannelCreationTimestamp; // in case we enable the profiler after Init()
mAsyncOpenTime = TimeStamp::Now();
mEventQ = new ChannelEventQueue(static_cast<nsIHttpChannel*>(this));
// Ensure that the cookie service is initialized before the first
// IPC HTTP channel is created.
// We require that the parent cookie service actor exists while
// processing HTTP responses.
RefPtr<CookieServiceChild> cookieService = CookieServiceChild::GetSingleton();
}
HttpChannelChild::~HttpChannelChild() {
LOG(("Destroying HttpChannelChild @%p\n", this));
ReleaseMainThreadOnlyReferences();
}
void HttpChannelChild::ReleaseMainThreadOnlyReferences() {
if (NS_IsMainThread()) {
// Already on main thread, let dtor to
// take care of releasing references
return;
}
nsTArray<nsCOMPtr<nsISupports>> arrayToRelease;
arrayToRelease.AppendElement(mRedirectChannelChild.forget());
// To solve multiple inheritence of nsISupports in InterceptStreamListener
nsCOMPtr<nsIStreamListener> listener = mInterceptListener.forget();
arrayToRelease.AppendElement(listener.forget());
arrayToRelease.AppendElement(mInterceptedRedirectListener.forget());
arrayToRelease.AppendElement(mInterceptedRedirectContext.forget());
NS_DispatchToMainThread(new ProxyReleaseRunnable(std::move(arrayToRelease)));
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsISupports
//-----------------------------------------------------------------------------
NS_IMPL_ADDREF(HttpChannelChild)
NS_IMETHODIMP_(MozExternalRefCountType) HttpChannelChild::Release() {
if (!NS_IsMainThread()) {
nsrefcnt count = mRefCnt;
nsresult rv = NS_DispatchToMainThread(NewNonOwningRunnableMethod(
"HttpChannelChild::Release", this, &HttpChannelChild::Release));
// Continue Release procedure if failed to dispatch to main thread.
if (!NS_WARN_IF(NS_FAILED(rv))) {
return count - 1;
}
}
nsrefcnt count = --mRefCnt;
MOZ_ASSERT(int32_t(count) >= 0, "dup release");
NS_LOG_RELEASE(this, count, "HttpChannelChild");
// Normally we Send_delete in OnStopRequest, but when we need to retain the
// remote channel for security info IPDL itself holds 1 reference, so we
// Send_delete when refCnt==1. But if !CanSend(), then there's nobody to send
// to, so we fall through.
if (mKeptAlive && count == 1 && CanSend()) {
mKeptAlive = false;
// We send a message to the parent, which calls SendDelete, and then the
// child calling Send__delete__() to finally drop the refcount to 0.
TrySendDeletingChannel();
return 1;
}
if (count == 0) {
mRefCnt = 1; /* stabilize */
delete this;
return 0;
}
return count;
}
NS_INTERFACE_MAP_BEGIN(HttpChannelChild)
NS_INTERFACE_MAP_ENTRY(nsIRequest)
NS_INTERFACE_MAP_ENTRY(nsIChannel)
NS_INTERFACE_MAP_ENTRY(nsIHttpChannel)
NS_INTERFACE_MAP_ENTRY(nsIHttpChannelInternal)
NS_INTERFACE_MAP_ENTRY(nsICacheInfoChannel)
NS_INTERFACE_MAP_ENTRY(nsIResumableChannel)
NS_INTERFACE_MAP_ENTRY(nsISupportsPriority)
NS_INTERFACE_MAP_ENTRY(nsIClassOfService)
NS_INTERFACE_MAP_ENTRY(nsIProxiedChannel)
NS_INTERFACE_MAP_ENTRY(nsITraceableChannel)
NS_INTERFACE_MAP_ENTRY(nsIApplicationCacheContainer)
NS_INTERFACE_MAP_ENTRY(nsIApplicationCacheChannel)
NS_INTERFACE_MAP_ENTRY(nsIAsyncVerifyRedirectCallback)
NS_INTERFACE_MAP_ENTRY(nsIChildChannel)
NS_INTERFACE_MAP_ENTRY(nsIHttpChannelChild)
NS_INTERFACE_MAP_ENTRY(nsIDivertableChannel)
NS_INTERFACE_MAP_ENTRY(nsIThreadRetargetableRequest)
NS_INTERFACE_MAP_ENTRY_CONCRETE(HttpChannelChild)
NS_INTERFACE_MAP_END_INHERITING(HttpBaseChannel)
//-----------------------------------------------------------------------------
// HttpChannelChild::PHttpChannelChild
//-----------------------------------------------------------------------------
void HttpChannelChild::OnBackgroundChildReady(
HttpBackgroundChannelChild* aBgChild) {
LOG(("HttpChannelChild::OnBackgroundChildReady [this=%p, bgChild=%p]\n", this,
aBgChild));
MOZ_ASSERT(OnSocketThread());
{
MutexAutoLock lock(mBgChildMutex);
// mBgChild might be removed or replaced while the original background
// channel is inited on STS thread.
if (mBgChild != aBgChild) {
return;
}
MOZ_ASSERT(mBgInitFailCallback);
mBgInitFailCallback = nullptr;
}
}
void HttpChannelChild::OnBackgroundChildDestroyed(
HttpBackgroundChannelChild* aBgChild) {
LOG(("HttpChannelChild::OnBackgroundChildDestroyed [this=%p]\n", this));
// This function might be called during shutdown phase, so OnSocketThread()
// might return false even on STS thread. Use IsOnCurrentThreadInfallible()
// to get correct information.
MOZ_ASSERT(gSocketTransportService);
MOZ_ASSERT(gSocketTransportService->IsOnCurrentThreadInfallible());
nsCOMPtr<nsIRunnable> callback;
{
MutexAutoLock lock(mBgChildMutex);
// mBgChild might be removed or replaced while the original background
// channel is destroyed on STS thread.
if (aBgChild != mBgChild) {
return;
}
mBgChild = nullptr;
callback = mBgInitFailCallback.forget();
}
if (callback) {
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
neckoTarget->Dispatch(callback, NS_DISPATCH_NORMAL);
}
}
class AssociateApplicationCacheEvent
: public NeckoTargetChannelEvent<HttpChannelChild> {
public:
AssociateApplicationCacheEvent(HttpChannelChild* aChild,
const nsCString& aGroupID,
const nsCString& aClientID)
: NeckoTargetChannelEvent<HttpChannelChild>(aChild),
groupID(aGroupID),
clientID(aClientID) {}
void Run() override { mChild->AssociateApplicationCache(groupID, clientID); }
private:
nsCString groupID;
nsCString clientID;
};
mozilla::ipc::IPCResult HttpChannelChild::RecvAssociateApplicationCache(
const nsCString& groupID, const nsCString& clientID) {
LOG(("HttpChannelChild::RecvAssociateApplicationCache [this=%p]\n", this));
mEventQ->RunOrEnqueue(
new AssociateApplicationCacheEvent(this, groupID, clientID));
return IPC_OK();
}
void HttpChannelChild::AssociateApplicationCache(const nsCString& groupID,
const nsCString& clientID) {
LOG(("HttpChannelChild::AssociateApplicationCache [this=%p]\n", this));
mApplicationCache = new nsApplicationCache();
mLoadedFromApplicationCache = true;
mApplicationCache->InitAsHandle(groupID, clientID);
}
class StartRequestEvent : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
StartRequestEvent(
HttpChannelChild* aChild, const nsresult& aChannelStatus,
const nsHttpResponseHead& aResponseHead, const bool& aUseResponseHead,
const nsHttpHeaderArray& aRequestHeaders,
const ParentLoadInfoForwarderArgs& loadInfoForwarder,
const bool& aIsFromCache, const bool& aIsRacing,
const bool& aCacheEntryAvailable, const uint64_t& aCacheEntryId,
const int32_t& aCacheFetchCount, const uint32_t& aCacheExpirationTime,
const nsCString& aCachedCharset,
const nsCString& aSecurityInfoSerialization, const NetAddr& aSelfAddr,
const NetAddr& aPeerAddr, const uint32_t& aCacheKey,
const nsCString& altDataType, const int64_t& altDataLen,
const bool& deliveringAltData, const bool& aApplyConversion,
const bool& aIsResolvedByTRR, const ResourceTimingStruct& aTiming,
const bool& aAllRedirectsSameOrigin)
: NeckoTargetChannelEvent<HttpChannelChild>(aChild),
mChannelStatus(aChannelStatus),
mResponseHead(aResponseHead),
mRequestHeaders(aRequestHeaders),
mUseResponseHead(aUseResponseHead),
mApplyConversion(aApplyConversion),
mIsFromCache(aIsFromCache),
mIsRacing(aIsRacing),
mCacheEntryAvailable(aCacheEntryAvailable),
mCacheEntryId(aCacheEntryId),
mCacheFetchCount(aCacheFetchCount),
mCacheExpirationTime(aCacheExpirationTime),
mCachedCharset(aCachedCharset),
mSecurityInfoSerialization(aSecurityInfoSerialization),
mSelfAddr(aSelfAddr),
mPeerAddr(aPeerAddr),
mCacheKey(aCacheKey),
mAltDataType(altDataType),
mAltDataLen(altDataLen),
mDeliveringAltData(deliveringAltData),
mLoadInfoForwarder(loadInfoForwarder),
mIsResolvedByTRR(aIsResolvedByTRR),
mTiming(aTiming),
mAllRedirectsSameOrigin(aAllRedirectsSameOrigin) {}
void Run() override {
LOG(("StartRequestEvent [this=%p]\n", mChild));
mChild->OnStartRequest(
mChannelStatus, mResponseHead, mUseResponseHead, mRequestHeaders,
mLoadInfoForwarder, mIsFromCache, mIsRacing, mCacheEntryAvailable,
mCacheEntryId, mCacheFetchCount, mCacheExpirationTime, mCachedCharset,
mSecurityInfoSerialization, mSelfAddr, mPeerAddr, mCacheKey,
mAltDataType, mAltDataLen, mDeliveringAltData, mApplyConversion,
mIsResolvedByTRR, mTiming, mAllRedirectsSameOrigin);
}
private:
nsresult mChannelStatus;
nsHttpResponseHead mResponseHead;
nsHttpHeaderArray mRequestHeaders;
bool mUseResponseHead;
bool mApplyConversion;
bool mIsFromCache;
bool mIsRacing;
bool mCacheEntryAvailable;
uint64_t mCacheEntryId;
int32_t mCacheFetchCount;
uint32_t mCacheExpirationTime;
nsCString mCachedCharset;
nsCString mSecurityInfoSerialization;
NetAddr mSelfAddr;
NetAddr mPeerAddr;
uint32_t mCacheKey;
nsCString mAltDataType;
int64_t mAltDataLen;
bool mDeliveringAltData;
ParentLoadInfoForwarderArgs mLoadInfoForwarder;
bool mIsResolvedByTRR;
ResourceTimingStruct mTiming;
bool mAllRedirectsSameOrigin;
};
mozilla::ipc::IPCResult HttpChannelChild::RecvOnStartRequest(
const nsresult& channelStatus, const nsHttpResponseHead& responseHead,
const bool& useResponseHead, const nsHttpHeaderArray& requestHeaders,
const ParentLoadInfoForwarderArgs& loadInfoForwarder,
const bool& isFromCache, const bool& isRacing,
const bool& cacheEntryAvailable, const uint64_t& cacheEntryId,
const int32_t& cacheFetchCount, const uint32_t& cacheExpirationTime,
const nsCString& cachedCharset, const nsCString& securityInfoSerialization,
const NetAddr& selfAddr, const NetAddr& peerAddr,
const int16_t& redirectCount, const uint32_t& cacheKey,
const nsCString& altDataType, const int64_t& altDataLen,
const bool& deliveringAltData, const bool& aApplyConversion,
const bool& aIsResolvedByTRR, const ResourceTimingStruct& aTiming,
const bool& aAllRedirectsSameOrigin) {
AUTO_PROFILER_LABEL("HttpChannelChild::RecvOnStartRequest", NETWORK);
LOG(("HttpChannelChild::RecvOnStartRequest [this=%p]\n", this));
// mFlushedForDiversion and mDivertingToParent should NEVER be set at this
// stage, as they are set in the listener's OnStartRequest.
MOZ_RELEASE_ASSERT(
!mFlushedForDiversion,
"mFlushedForDiversion should be unset before OnStartRequest!");
MOZ_RELEASE_ASSERT(
!mDivertingToParent,
"mDivertingToParent should be unset before OnStartRequest!");
mRedirectCount = redirectCount;
mEventQ->RunOrEnqueue(new StartRequestEvent(
this, channelStatus, responseHead, useResponseHead, requestHeaders,
loadInfoForwarder, isFromCache, isRacing, cacheEntryAvailable,
cacheEntryId, cacheFetchCount, cacheExpirationTime, cachedCharset,
securityInfoSerialization, selfAddr, peerAddr, cacheKey, altDataType,
altDataLen, deliveringAltData, aApplyConversion, aIsResolvedByTRR,
aTiming, aAllRedirectsSameOrigin));
{
// Child's mEventQ is to control the execution order of the IPC messages
// from both main thread IPDL and PBackground IPDL.
// To guarantee the ordering, PBackground IPC messages that are sent after
// OnStartRequest will be throttled until OnStartRequest hits the Child's
// mEventQ.
MutexAutoLock lock(mBgChildMutex);
if (mBgChild) {
MOZ_RELEASE_ASSERT(gSocketTransportService);
DebugOnly<nsresult> rv = gSocketTransportService->Dispatch(
NewRunnableMethod(
"HttpBackgroundChannelChild::OnStartRequestReceived", mBgChild,
&HttpBackgroundChannelChild::OnStartRequestReceived),
NS_DISPATCH_NORMAL);
}
}
return IPC_OK();
}
void HttpChannelChild::OnStartRequest(
const nsresult& channelStatus, const nsHttpResponseHead& responseHead,
const bool& useResponseHead, const nsHttpHeaderArray& requestHeaders,
const ParentLoadInfoForwarderArgs& loadInfoForwarder,
const bool& isFromCache, const bool& isRacing,
const bool& cacheEntryAvailable, const uint64_t& cacheEntryId,
const int32_t& cacheFetchCount, const uint32_t& cacheExpirationTime,
const nsCString& cachedCharset, const nsCString& securityInfoSerialization,
const NetAddr& selfAddr, const NetAddr& peerAddr, const uint32_t& cacheKey,
const nsCString& altDataType, const int64_t& altDataLen,
const bool& deliveringAltData, const bool& aApplyConversion,
const bool& aIsResolvedByTRR, const ResourceTimingStruct& aTiming,
const bool& aAllRedirectsSameOrigin) {
LOG(("HttpChannelChild::OnStartRequest [this=%p]\n", this));
// mFlushedForDiversion and mDivertingToParent should NEVER be set at this
// stage, as they are set in the listener's OnStartRequest.
MOZ_RELEASE_ASSERT(
!mFlushedForDiversion,
"mFlushedForDiversion should be unset before OnStartRequest!");
MOZ_RELEASE_ASSERT(
!mDivertingToParent,
"mDivertingToParent should be unset before OnStartRequest!");
// If this channel was aborted by ActorDestroy, then there may be other
// OnStartRequest/OnStopRequest/OnDataAvailable IPC messages that need to
// be handled. In that case we just ignore them to avoid calling the listener
// twice.
if (mOnStartRequestCalled && mIPCActorDeleted) {
return;
}
if (!mCanceled && NS_SUCCEEDED(mStatus)) {
mStatus = channelStatus;
}
// Cookies headers should not be visible to the child process
MOZ_ASSERT(!requestHeaders.HasHeader(nsHttp::Cookie));
MOZ_ASSERT(!nsHttpResponseHead(responseHead).HasHeader(nsHttp::Set_Cookie));
if (useResponseHead && !mCanceled)
mResponseHead = new nsHttpResponseHead(responseHead);
if (!securityInfoSerialization.IsEmpty()) {
nsresult rv = NS_DeserializeObject(securityInfoSerialization,
getter_AddRefs(mSecurityInfo));
MOZ_DIAGNOSTIC_ASSERT(NS_SUCCEEDED(rv),
"Deserializing security info should not fail");
Unused << rv; // So we don't get an unused error in release builds.
}
ipc::MergeParentLoadInfoForwarder(loadInfoForwarder, mLoadInfo);
mIsFromCache = isFromCache;
mIsRacing = isRacing;
mCacheEntryAvailable = cacheEntryAvailable;
mCacheEntryId = cacheEntryId;
mCacheFetchCount = cacheFetchCount;
mCacheExpirationTime = cacheExpirationTime;
mCachedCharset = cachedCharset;
mSelfAddr = selfAddr;
mPeerAddr = peerAddr;
mAvailableCachedAltDataType = altDataType;
mDeliveringAltData = deliveringAltData;
mAltDataLength = altDataLen;
mResolvedByTRR = aIsResolvedByTRR;
SetApplyConversion(aApplyConversion);
mAfterOnStartRequestBegun = true;
AutoEventEnqueuer ensureSerialDispatch(mEventQ);
mCacheKey = cacheKey;
// replace our request headers with what actually got sent in the parent
mRequestHead.SetHeaders(requestHeaders);
// Note: this is where we would notify "http-on-examine-response" observers.
// We have deliberately disabled this for child processes (see bug 806753)
//
// gHttpHandler->OnExamineResponse(this);
mTracingEnabled = false;
mTransactionTimings = aTiming;
mAllRedirectsSameOrigin = aAllRedirectsSameOrigin;
DoOnStartRequest(this, nullptr);
}
class SyntheticDiversionListener final : public nsIStreamListener {
RefPtr<HttpChannelChild> mChannel;
~SyntheticDiversionListener() = default;
public:
explicit SyntheticDiversionListener(HttpChannelChild* aChannel)
: mChannel(aChannel) {
MOZ_ASSERT(mChannel);
}
NS_IMETHOD
OnStartRequest(nsIRequest* aRequest) override {
MOZ_ASSERT_UNREACHABLE(
"SyntheticDiversionListener should never see OnStartRequest");
return NS_OK;
}
NS_IMETHOD
OnStopRequest(nsIRequest* aRequest, nsresult aStatus) override {
if (mChannel->CanSend()) {
mChannel->SendDivertOnStopRequest(aStatus);
mChannel->SendDivertComplete();
}
return NS_OK;
}
NS_IMETHOD
OnDataAvailable(nsIRequest* aRequest, nsIInputStream* aInputStream,
uint64_t aOffset, uint32_t aCount) override {
if (!mChannel->CanSend()) {
aRequest->Cancel(NS_ERROR_ABORT);
return NS_ERROR_ABORT;
}
nsAutoCString data;
nsresult rv = NS_ConsumeStream(aInputStream, aCount, data);
if (NS_WARN_IF(NS_FAILED(rv))) {
aRequest->Cancel(rv);
return rv;
}
mChannel->SendDivertOnDataAvailable(data, aOffset, aCount);
return NS_OK;
}
NS_DECL_ISUPPORTS
};
NS_IMPL_ISUPPORTS(SyntheticDiversionListener, nsIStreamListener);
void HttpChannelChild::DoOnStartRequest(nsIRequest* aRequest,
nsISupports* aContext) {
nsresult rv;
LOG(("HttpChannelChild::DoOnStartRequest [this=%p]\n", this));
// In theory mListener should not be null, but in practice sometimes it is.
MOZ_ASSERT(mListener);
if (!mListener) {
Cancel(NS_ERROR_FAILURE);
return;
}
if (mSynthesizedResponsePump && mLoadFlags & LOAD_CALL_CONTENT_SNIFFERS) {
mSynthesizedResponsePump->PeekStream(CallTypeSniffers,
static_cast<nsIChannel*>(this));
}
if (mListener) {
nsCOMPtr<nsIStreamListener> listener(mListener);
mOnStartRequestCalled = true;
rv = listener->OnStartRequest(aRequest);
} else {
rv = NS_ERROR_UNEXPECTED;
}
mOnStartRequestCalled = true;
if (NS_FAILED(rv)) {
Cancel(rv);
return;
}
if (mDivertingToParent) {
mListener = nullptr;
mCompressListener = nullptr;
if (mLoadGroup) {
mLoadGroup->RemoveRequest(this, nullptr, mStatus);
}
// If the response has been synthesized in the child, then we are going
// be getting OnDataAvailable and OnStopRequest from the synthetic
// stream pump. We need to forward these back to the parent diversion
// listener.
if (mSynthesizedResponse) {
mListener = new SyntheticDiversionListener(this);
}
return;
}
nsCOMPtr<nsIStreamListener> listener;
rv = DoApplyContentConversions(mListener, getter_AddRefs(listener), nullptr);
if (NS_FAILED(rv)) {
Cancel(rv);
} else if (listener) {
mListener = listener;
mCompressListener = listener;
}
}
class TransportAndDataEvent : public ChannelEvent {
public:
TransportAndDataEvent(HttpChannelChild* child, const nsresult& channelStatus,
const nsresult& transportStatus, const nsCString& data,
const uint64_t& offset, const uint32_t& count)
: mChild(child),
mChannelStatus(channelStatus),
mTransportStatus(transportStatus),
mData(data),
mOffset(offset),
mCount(count) {}
void Run() override {
mChild->OnTransportAndData(mChannelStatus, mTransportStatus, mOffset,
mCount, mData);
}
already_AddRefed<nsIEventTarget> GetEventTarget() override {
MOZ_ASSERT(mChild);
nsCOMPtr<nsIEventTarget> target = mChild->GetODATarget();
return target.forget();
}
private:
HttpChannelChild* mChild;
nsresult mChannelStatus;
nsresult mTransportStatus;
nsCString mData;
uint64_t mOffset;
uint32_t mCount;
};
void HttpChannelChild::ProcessOnTransportAndData(
const nsresult& aChannelStatus, const nsresult& aTransportStatus,
const uint64_t& aOffset, const uint32_t& aCount, const nsCString& aData) {
LOG(("HttpChannelChild::ProcessOnTransportAndData [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
MOZ_RELEASE_ASSERT(!mFlushedForDiversion,
"Should not be receiving any more callbacks from parent!");
mEventQ->RunOrEnqueue(
new TransportAndDataEvent(this, aChannelStatus, aTransportStatus, aData,
aOffset, aCount),
mDivertingToParent);
}
class MaybeDivertOnDataHttpEvent
: public NeckoTargetChannelEvent<HttpChannelChild> {
public:
MaybeDivertOnDataHttpEvent(HttpChannelChild* child, const nsCString& data,
const uint64_t& offset, const uint32_t& count)
: NeckoTargetChannelEvent<HttpChannelChild>(child),
mData(data),
mOffset(offset),
mCount(count) {}
void Run() override { mChild->MaybeDivertOnData(mData, mOffset, mCount); }
private:
nsCString mData;
uint64_t mOffset;
uint32_t mCount;
};
void HttpChannelChild::MaybeDivertOnData(const nsCString& data,
const uint64_t& offset,
const uint32_t& count) {
LOG(("HttpChannelChild::MaybeDivertOnData [this=%p]", this));
if (mDivertingToParent) {
SendDivertOnDataAvailable(data, offset, count);
}
}
void HttpChannelChild::OnTransportAndData(const nsresult& channelStatus,
const nsresult& transportStatus,
const uint64_t& offset,
const uint32_t& count,
const nsCString& data) {
LOG(("HttpChannelChild::OnTransportAndData [this=%p]\n", this));
if (!mCanceled && NS_SUCCEEDED(mStatus)) {
mStatus = channelStatus;
}
// For diversion to parent, just SendDivertOnDataAvailable.
if (mDivertingToParent) {
MOZ_ASSERT(NS_IsMainThread());
MOZ_RELEASE_ASSERT(
!mFlushedForDiversion,
"Should not be processing any more callbacks from parent!");
SendDivertOnDataAvailable(data, offset, count);
return;
}
if (mCanceled) return;
if (mUnknownDecoderInvolved) {
LOG(("UnknownDecoder is involved queue OnDataAvailable call. [this=%p]",
this));
MOZ_ASSERT(NS_IsMainThread());
mUnknownDecoderEventQ.AppendElement(
MakeUnique<MaybeDivertOnDataHttpEvent>(this, data, offset, count));
}
// Hold queue lock throughout all three calls, else we might process a later
// necko msg in between them.
AutoEventEnqueuer ensureSerialDispatch(mEventQ);
int64_t progressMax;
if (NS_FAILED(GetContentLength(&progressMax))) {
progressMax = -1;
}
const int64_t progress = offset + count;
// OnTransportAndData will be run on retargeted thread if applicable, however
// OnStatus/OnProgress event can only be fired on main thread. We need to
// dispatch the status/progress event handling back to main thread with the
// appropriate event target for networking.
if (NS_IsMainThread()) {
DoOnStatus(this, transportStatus);
DoOnProgress(this, progress, progressMax);
} else {
RefPtr<HttpChannelChild> self = this;
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
DebugOnly<nsresult> rv = neckoTarget->Dispatch(
NS_NewRunnableFunction(
"net::HttpChannelChild::OnTransportAndData",
[self, transportStatus, progress, progressMax]() {
self->DoOnStatus(self, transportStatus);
self->DoOnProgress(self, progress, progressMax);
}),
NS_DISPATCH_NORMAL);
MOZ_ASSERT(NS_SUCCEEDED(rv));
}
// OnDataAvailable
//
// NOTE: the OnDataAvailable contract requires the client to read all the data
// in the inputstream. This code relies on that ('data' will go away after
// this function). Apparently the previous, non-e10s behavior was to actually
// support only reading part of the data, allowing later calls to read the
// rest.
nsCOMPtr<nsIInputStream> stringStream;
nsresult rv =
NS_NewByteInputStream(getter_AddRefs(stringStream),
MakeSpan(data).To(count), NS_ASSIGNMENT_DEPEND);
if (NS_FAILED(rv)) {
Cancel(rv);
return;
}
DoOnDataAvailable(this, nullptr, stringStream, offset, count);
stringStream->Close();
if (NeedToReportBytesRead()) {
mUnreportBytesRead += count;
if (mUnreportBytesRead >= gHttpHandler->SendWindowSize() >> 2) {
if (NS_IsMainThread()) {
Unused << SendBytesRead(mUnreportBytesRead);
} else {
// PHttpChannel connects to the main thread
RefPtr<HttpChannelChild> self = this;
int32_t bytesRead = mUnreportBytesRead;
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
DebugOnly<nsresult> rv = neckoTarget->Dispatch(
NS_NewRunnableFunction("net::HttpChannelChild::SendBytesRead",
[self, bytesRead]() {
Unused << self->SendBytesRead(bytesRead);
}),
NS_DISPATCH_NORMAL);
MOZ_ASSERT(NS_SUCCEEDED(rv));
}
mUnreportBytesRead = 0;
}
}
}
bool HttpChannelChild::NeedToReportBytesRead() {
if (mCacheNeedToReportBytesReadInitialized) {
// No need to send SendRecvBytes when diversion starts since the parent
// process will suspend for diversion triggered in during OnStrartRequest at
// child side, which is earlier. Parent will take over the flow control
// after the diverting starts. Sending |SendBytesRead| is redundant.
return mNeedToReportBytesRead && !mDivertingToParent;
}
// Might notify parent for partial cache, and the IPC message is ignored by
// parent.
int64_t contentLength = -1;
if (gHttpHandler->SendWindowSize() == 0 || mIsFromCache ||
NS_FAILED(GetContentLength(&contentLength)) ||
contentLength < gHttpHandler->SendWindowSize()) {
mNeedToReportBytesRead = false;
}
mCacheNeedToReportBytesReadInitialized = true;
return mNeedToReportBytesRead;
}
void HttpChannelChild::DoOnStatus(nsIRequest* aRequest, nsresult status) {
LOG(("HttpChannelChild::DoOnStatus [this=%p]\n", this));
MOZ_ASSERT(NS_IsMainThread());
if (mCanceled) return;
// cache the progress sink so we don't have to query for it each time.
if (!mProgressSink) GetCallback(mProgressSink);
// Temporary fix for bug 1116124
// See 1124971 - Child removes LOAD_BACKGROUND flag from channel
if (status == NS_OK) return;
// block status/progress after Cancel or OnStopRequest has been called,
// or if channel has LOAD_BACKGROUND set.
if (mProgressSink && NS_SUCCEEDED(mStatus) && mIsPending &&
!(mLoadFlags & LOAD_BACKGROUND)) {
// OnStatus
//
MOZ_ASSERT(status == NS_NET_STATUS_RECEIVING_FROM ||
status == NS_NET_STATUS_READING);
nsAutoCString host;
mURI->GetHost(host);
mProgressSink->OnStatus(aRequest, nullptr, status,
NS_ConvertUTF8toUTF16(host).get());
}
}
void HttpChannelChild::DoOnProgress(nsIRequest* aRequest, int64_t progress,
int64_t progressMax) {
LOG(("HttpChannelChild::DoOnProgress [this=%p]\n", this));
MOZ_ASSERT(NS_IsMainThread());
if (mCanceled) return;
// cache the progress sink so we don't have to query for it each time.
if (!mProgressSink) GetCallback(mProgressSink);
// block status/progress after Cancel or OnStopRequest has been called,
// or if channel has LOAD_BACKGROUND set.
if (mProgressSink && NS_SUCCEEDED(mStatus) && mIsPending &&
!(mLoadFlags & LOAD_BACKGROUND)) {
// OnProgress
//
if (progress > 0) {
mProgressSink->OnProgress(aRequest, nullptr, progress, progressMax);
}
}
}
void HttpChannelChild::DoOnDataAvailable(nsIRequest* aRequest,
nsISupports* aContext,
nsIInputStream* aStream,
uint64_t offset, uint32_t count) {
AUTO_PROFILER_LABEL("HttpChannelChild::DoOnDataAvailable", NETWORK);
LOG(("HttpChannelChild::DoOnDataAvailable [this=%p]\n", this));
if (mCanceled) return;
if (mListener) {
nsCOMPtr<nsIStreamListener> listener(mListener);
nsresult rv = listener->OnDataAvailable(aRequest, aStream, offset, count);
if (NS_FAILED(rv)) {
CancelOnMainThread(rv);
}
}
}
class StopRequestEvent : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
StopRequestEvent(HttpChannelChild* child, const nsresult& channelStatus,
const ResourceTimingStruct& timing,
const nsHttpHeaderArray& aResponseTrailers)
: NeckoTargetChannelEvent<HttpChannelChild>(child),
mChannelStatus(channelStatus),
mTiming(timing),
mResponseTrailers(aResponseTrailers) {}
void Run() override {
mChild->OnStopRequest(mChannelStatus, mTiming, mResponseTrailers);
}
private:
nsresult mChannelStatus;
ResourceTimingStruct mTiming;
nsHttpHeaderArray mResponseTrailers;
};
void HttpChannelChild::ProcessOnStopRequest(
const nsresult& aChannelStatus, const ResourceTimingStruct& aTiming,
const nsHttpHeaderArray& aResponseTrailers) {
LOG(("HttpChannelChild::ProcessOnStopRequest [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
MOZ_RELEASE_ASSERT(!mFlushedForDiversion,
"Should not be receiving any more callbacks from parent!");
mEventQ->RunOrEnqueue(
new StopRequestEvent(this, aChannelStatus, aTiming, aResponseTrailers),
mDivertingToParent);
}
class MaybeDivertOnStopHttpEvent
: public NeckoTargetChannelEvent<HttpChannelChild> {
public:
MaybeDivertOnStopHttpEvent(HttpChannelChild* child,
const nsresult& channelStatus)
: NeckoTargetChannelEvent<HttpChannelChild>(child),
mChannelStatus(channelStatus) {}
void Run() override { mChild->MaybeDivertOnStop(mChannelStatus); }
private:
nsresult mChannelStatus;
};
void HttpChannelChild::MaybeDivertOnStop(const nsresult& aChannelStatus) {
LOG(
("HttpChannelChild::MaybeDivertOnStop [this=%p, "
"mDivertingToParent=%d status=%" PRIx32 "]",
this, static_cast<bool>(mDivertingToParent),
static_cast<uint32_t>(aChannelStatus)));
if (mDivertingToParent) {
SendDivertOnStopRequest(aChannelStatus);
}
}
void HttpChannelChild::OnStopRequest(
const nsresult& channelStatus, const ResourceTimingStruct& timing,
const nsHttpHeaderArray& aResponseTrailers) {
LOG(("HttpChannelChild::OnStopRequest [this=%p status=%" PRIx32 "]\n", this,
static_cast<uint32_t>(channelStatus)));
MOZ_ASSERT(NS_IsMainThread());
// If this channel was aborted by ActorDestroy, then there may be other
// OnStartRequest/OnStopRequest/OnDataAvailable IPC messages that need to
// be handled. In that case we just ignore them to avoid calling the listener
// twice.
if (mOnStopRequestCalled && mIPCActorDeleted) {
return;
}
if (mDivertingToParent) {
MOZ_RELEASE_ASSERT(
!mFlushedForDiversion,
"Should not be processing any more callbacks from parent!");
SendDivertOnStopRequest(channelStatus);
return;
}
if (mUnknownDecoderInvolved) {
LOG(("UnknownDecoder is involved queue OnStopRequest call. [this=%p]",
this));
MOZ_ASSERT(NS_IsMainThread());
mUnknownDecoderEventQ.AppendElement(
MakeUnique<MaybeDivertOnStopHttpEvent>(this, channelStatus));
}
nsCOMPtr<nsICompressConvStats> conv = do_QueryInterface(mCompressListener);
if (conv) {
conv->GetDecodedDataLength(&mDecodedBodySize);
}
mTransactionTimings.domainLookupStart = timing.domainLookupStart;
mTransactionTimings.domainLookupEnd = timing.domainLookupEnd;
mTransactionTimings.connectStart = timing.connectStart;
mTransactionTimings.tcpConnectEnd = timing.tcpConnectEnd;
mTransactionTimings.secureConnectionStart = timing.secureConnectionStart;
mTransactionTimings.connectEnd = timing.connectEnd;
mTransactionTimings.requestStart = timing.requestStart;
mTransactionTimings.responseStart = timing.responseStart;
mTransactionTimings.responseEnd = timing.responseEnd;
// Do not overwrite or adjust the original mAsyncOpenTime by timing.fetchStart
// We must use the original child process time in order to account for child
// side work and IPC transit overhead.
// XXX: This depends on TimeStamp being equivalent across processes.
// This is true for modern hardware but for older platforms it is not always
// true.
mRedirectStartTimeStamp = timing.redirectStart;
mRedirectEndTimeStamp = timing.redirectEnd;
mTransferSize = timing.transferSize;
mEncodedBodySize = timing.encodedBodySize;
mProtocolVersion = timing.protocolVersion;
mCacheReadStart = timing.cacheReadStart;
mCacheReadEnd = timing.cacheReadEnd;
#ifdef MOZ_GECKO_PROFILER
if (profiler_is_active()) {
int32_t priority = PRIORITY_NORMAL;
GetPriority(&priority);
profiler_add_network_marker(mURI, priority, mChannelId,
NetworkLoadType::LOAD_STOP, mLastStatusReported,
TimeStamp::Now(), mTransferSize, kCacheUnknown,
&mTransactionTimings);
}
#endif
mResponseTrailers = new nsHttpHeaderArray(aResponseTrailers);
DoPreOnStopRequest(channelStatus);
{ // We must flush the queue before we Send__delete__
// (although we really shouldn't receive any msgs after OnStop),
// so make sure this goes out of scope before then.
AutoEventEnqueuer ensureSerialDispatch(mEventQ);
DoOnStopRequest(this, channelStatus, nullptr);
// DoOnStopRequest() calls ReleaseListeners()
}
// If unknownDecoder is involved and the received content is short we will
// know whether we need to divert to parent only after OnStopRequest of the
// listeners chain is called in DoOnStopRequest. At that moment
// unknownDecoder will call OnStartRequest of the real listeners of the
// channel including the OnStopRequest of UrlLoader which decides whether we
// need to divert to parent.
// If we are diverting to parent we should not do a cleanup.
if (mDivertingToParent) {
LOG(
("HttpChannelChild::OnStopRequest - We are diverting to parent, "
"postpone cleaning up."));
return;
}
CleanupBackgroundChannel();
// If there is a possibility we might want to write alt data to the cache
// entry, we keep the channel alive. We still send the DocumentChannelCleanup
// message but request the cache entry to be kept by the parent.
// If the channel has failed, the cache entry is in a non-writtable state and
// we want to release it to not block following consumers.
if (NS_SUCCEEDED(channelStatus) && !mPreferredCachedAltDataTypes.IsEmpty()) {
mKeptAlive = true;
SendDocumentChannelCleanup(false); // don't clear cache entry
return;
}
if (mLoadFlags & LOAD_DOCUMENT_URI) {
// Keep IPDL channel open, but only for updating security info.
// If IPDL is already closed, then do nothing.
if (CanSend()) {
mKeptAlive = true;
SendDocumentChannelCleanup(true);
}
} else {
// The parent process will respond by sending a DeleteSelf message and
// making sure not to send any more messages after that.
TrySendDeletingChannel();
}
}
void HttpChannelChild::DoPreOnStopRequest(nsresult aStatus) {
AUTO_PROFILER_LABEL("HttpChannelChild::DoPreOnStopRequest", NETWORK);
LOG(("HttpChannelChild::DoPreOnStopRequest [this=%p status=%" PRIx32 "]\n",
this, static_cast<uint32_t>(aStatus)));
mIsPending = false;
MaybeCallSynthesizedCallback();
MaybeReportTimingData();
if (!mCanceled && NS_SUCCEEDED(mStatus)) {
mStatus = aStatus;
}
CollectOMTTelemetry();
}
void HttpChannelChild::CollectOMTTelemetry() {
MOZ_ASSERT(NS_IsMainThread());
// Only collect telemetry for HTTP channel that is loaded successfully and
// completely.
if (mCanceled || NS_FAILED(mStatus)) {
return;
}
// Use content policy type to accumulate data by usage.
nsContentPolicyType type = mLoadInfo ? mLoadInfo->InternalContentPolicyType()
: nsIContentPolicy::TYPE_OTHER;
nsAutoCString key(NS_CP_ContentTypeName(type));
Telemetry::AccumulateCategoricalKeyed(key, mOMTResult);
}
void HttpChannelChild::DoOnStopRequest(nsIRequest* aRequest,
nsresult aChannelStatus,
nsISupports* aContext) {
AUTO_PROFILER_LABEL("HttpChannelChild::DoOnStopRequest", NETWORK);
LOG(("HttpChannelChild::DoOnStopRequest [this=%p]\n", this));
MOZ_ASSERT(NS_IsMainThread());
MOZ_ASSERT(!mIsPending);
auto checkForBlockedContent = [&]() {
// NB: We use aChannelStatus here instead of mStatus because if there was an
// nsCORSListenerProxy on this request, it will override the tracking
// protection's return value.
if (UrlClassifierFeatureFactory::IsClassifierBlockingErrorCode(
aChannelStatus) ||
aChannelStatus == NS_ERROR_MALWARE_URI ||
aChannelStatus == NS_ERROR_UNWANTED_URI ||
aChannelStatus == NS_ERROR_BLOCKED_URI ||
aChannelStatus == NS_ERROR_HARMFUL_URI ||
aChannelStatus == NS_ERROR_PHISHING_URI) {
nsCString list, provider, fullhash;
nsresult rv = GetMatchedList(list);
NS_ENSURE_SUCCESS_VOID(rv);
rv = GetMatchedProvider(provider);
NS_ENSURE_SUCCESS_VOID(rv);
rv = GetMatchedFullHash(fullhash);
NS_ENSURE_SUCCESS_VOID(rv);
UrlClassifierCommon::SetBlockedContent(this, aChannelStatus, list,
provider, fullhash);
}
};
checkForBlockedContent();
MOZ_ASSERT(!mOnStopRequestCalled, "We should not call OnStopRequest twice");
// In theory mListener should not be null, but in practice sometimes it is.
MOZ_ASSERT(mListener);
if (mListener) {
nsCOMPtr<nsIStreamListener> listener(mListener);
mOnStopRequestCalled = true;
listener->OnStopRequest(aRequest, mStatus);
}
mOnStopRequestCalled = true;
// notify "http-on-stop-connect" observers
gHttpHandler->OnStopRequest(this);
ReleaseListeners();
// If a preferred alt-data type was set, the parent would hold a reference to
// the cache entry in case the child calls openAlternativeOutputStream().
// (see nsHttpChannel::OnStopRequest)
if (!mPreferredCachedAltDataTypes.IsEmpty()) {
mAltDataCacheEntryAvailable = mCacheEntryAvailable;
}
mCacheEntryAvailable = false;
if (mLoadGroup) mLoadGroup->RemoveRequest(this, nullptr, mStatus);
}
class ProgressEvent : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
ProgressEvent(HttpChannelChild* child, const int64_t& progress,
const int64_t& progressMax)
: NeckoTargetChannelEvent<HttpChannelChild>(child),
mProgress(progress),
mProgressMax(progressMax) {}
void Run() override { mChild->OnProgress(mProgress, mProgressMax); }
private:
int64_t mProgress, mProgressMax;
};
void HttpChannelChild::ProcessOnProgress(const int64_t& aProgress,
const int64_t& aProgressMax) {
LOG(("HttpChannelChild::ProcessOnProgress [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
mEventQ->RunOrEnqueue(new ProgressEvent(this, aProgress, aProgressMax));
}
void HttpChannelChild::OnProgress(const int64_t& progress,
const int64_t& progressMax) {
AUTO_PROFILER_LABEL("HttpChannelChild::OnProgress", NETWORK);
LOG(("HttpChannelChild::OnProgress [this=%p progress=%" PRId64 "/%" PRId64
"]\n",
this, progress, progressMax));
if (mCanceled) return;
// cache the progress sink so we don't have to query for it each time.
if (!mProgressSink) {
GetCallback(mProgressSink);
}
AutoEventEnqueuer ensureSerialDispatch(mEventQ);
// Block socket status event after Cancel or OnStopRequest has been called.
if (mProgressSink && NS_SUCCEEDED(mStatus) && mIsPending) {
if (progress > 0) {
mProgressSink->OnProgress(this, nullptr, progress, progressMax);
}
}
}
class StatusEvent : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
StatusEvent(HttpChannelChild* child, const nsresult& status)
: NeckoTargetChannelEvent<HttpChannelChild>(child), mStatus(status) {}
void Run() override { mChild->OnStatus(mStatus); }
private:
nsresult mStatus;
};
void HttpChannelChild::ProcessOnStatus(const nsresult& aStatus) {
LOG(("HttpChannelChild::ProcessOnStatus [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
mEventQ->RunOrEnqueue(new StatusEvent(this, aStatus));
}
void HttpChannelChild::OnStatus(const nsresult& status) {
AUTO_PROFILER_LABEL("HttpChannelChild::OnStatus", NETWORK);
LOG(("HttpChannelChild::OnStatus [this=%p status=%" PRIx32 "]\n", this,
static_cast<uint32_t>(status)));
if (mCanceled) return;
// cache the progress sink so we don't have to query for it each time.
if (!mProgressSink) GetCallback(mProgressSink);
AutoEventEnqueuer ensureSerialDispatch(mEventQ);
// block socket status event after Cancel or OnStopRequest has been called,
// or if channel has LOAD_BACKGROUND set
if (mProgressSink && NS_SUCCEEDED(mStatus) && mIsPending &&
!(mLoadFlags & LOAD_BACKGROUND)) {
nsAutoCString host;
mURI->GetHost(host);
mProgressSink->OnStatus(this, nullptr, status,
NS_ConvertUTF8toUTF16(host).get());
}
}
class FailedAsyncOpenEvent : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
FailedAsyncOpenEvent(HttpChannelChild* child, const nsresult& status)
: NeckoTargetChannelEvent<HttpChannelChild>(child), mStatus(status) {}
void Run() override { mChild->FailedAsyncOpen(mStatus); }
private:
nsresult mStatus;
};
mozilla::ipc::IPCResult HttpChannelChild::RecvFailedAsyncOpen(
const nsresult& status) {
LOG(("HttpChannelChild::RecvFailedAsyncOpen [this=%p]\n", this));
mEventQ->RunOrEnqueue(new FailedAsyncOpenEvent(this, status));
return IPC_OK();
}
// We need to have an implementation of this function just so that we can keep
// all references to mCallOnResume of type HttpChannelChild: it's not OK in C++
// to set a member function ptr to a base class function.
void HttpChannelChild::HandleAsyncAbort() {
HttpAsyncAborter<HttpChannelChild>::HandleAsyncAbort();
// Ignore all the messages from background channel after channel aborted.
CleanupBackgroundChannel();
}
void HttpChannelChild::FailedAsyncOpen(const nsresult& status) {
LOG(("HttpChannelChild::FailedAsyncOpen [this=%p status=%" PRIx32 "]\n", this,
static_cast<uint32_t>(status)));
MOZ_ASSERT(NS_IsMainThread());
// Might be called twice in race condition in theory.
// (one by RecvFailedAsyncOpen, another by
// HttpBackgroundChannelChild::ActorFailed)
if (mOnStartRequestCalled) {
return;
}
if (NS_SUCCEEDED(mStatus)) {
mStatus = status;
}
// We're already being called from IPDL, therefore already "async"
HandleAsyncAbort();
if (CanSend()) {
TrySendDeletingChannel();
}
}
void HttpChannelChild::CleanupBackgroundChannel() {
MutexAutoLock lock(mBgChildMutex);
AUTO_PROFILER_LABEL("HttpChannelChild::CleanupBackgroundChannel", NETWORK);
LOG(("HttpChannelChild::CleanupBackgroundChannel [this=%p bgChild=%p]\n",
this, mBgChild.get()));
mBgInitFailCallback = nullptr;
if (!mBgChild) {
return;
}
RefPtr<HttpBackgroundChannelChild> bgChild = mBgChild.forget();
MOZ_RELEASE_ASSERT(gSocketTransportService);
if (!OnSocketThread()) {
gSocketTransportService->Dispatch(
NewRunnableMethod("HttpBackgroundChannelChild::OnChannelClosed",
bgChild,
&HttpBackgroundChannelChild::OnChannelClosed),
NS_DISPATCH_NORMAL);
} else {
bgChild->OnChannelClosed();
}
}
void HttpChannelChild::DoNotifyListenerCleanup() {
LOG(("HttpChannelChild::DoNotifyListenerCleanup [this=%p]\n", this));
if (mInterceptListener) {
mInterceptListener->Cleanup();
mInterceptListener = nullptr;
}
MaybeCallSynthesizedCallback();
}
void HttpChannelChild::DoAsyncAbort(nsresult aStatus) {
Unused << AsyncAbort(aStatus);
}
class DeleteSelfEvent : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
explicit DeleteSelfEvent(HttpChannelChild* child)
: NeckoTargetChannelEvent<HttpChannelChild>(child) {}
void Run() override { mChild->DeleteSelf(); }
};
mozilla::ipc::IPCResult HttpChannelChild::RecvDeleteSelf() {
LOG(("HttpChannelChild::RecvDeleteSelf [this=%p]\n", this));
mEventQ->RunOrEnqueue(new DeleteSelfEvent(this));
return IPC_OK();
}
HttpChannelChild::OverrideRunnable::OverrideRunnable(
HttpChannelChild* aChannel, HttpChannelChild* aNewChannel,
InterceptStreamListener* aListener, nsIInputStream* aInput,
nsIInterceptedBodyCallback* aCallback, nsAutoPtr<nsHttpResponseHead>& aHead,
nsICacheInfoChannel* aCacheInfo)
: Runnable("net::HttpChannelChild::OverrideRunnable") {
mChannel = aChannel;
mNewChannel = aNewChannel;
mListener = aListener;
mInput = aInput;
mCallback = aCallback;
mHead = aHead;
mSynthesizedCacheInfo = aCacheInfo;
}
void HttpChannelChild::OverrideRunnable::OverrideWithSynthesizedResponse() {
if (mNewChannel) {
mNewChannel->OverrideWithSynthesizedResponse(
mHead, mInput, mCallback, mListener, mSynthesizedCacheInfo);
}
}
NS_IMETHODIMP
HttpChannelChild::OverrideRunnable::Run() {
// Check to see if the channel was canceled in the middle of the redirect.
nsresult rv = NS_OK;
Unused << mChannel->GetStatus(&rv);
if (NS_FAILED(rv)) {
if (mCallback) {
mCallback->BodyComplete(rv);
mCallback = nullptr;
}
mChannel->CleanupRedirectingChannel(rv);
if (mNewChannel) {
mNewChannel->Cancel(rv);
}
return NS_OK;
}
bool ret = mChannel->Redirect3Complete(this);
// If the method returns false, it means the IPDL connection is being
// asyncly torn down and reopened, and OverrideWithSynthesizedResponse
// will be called later from FinishInterceptedRedirect. This object will
// be assigned to HttpChannelChild::mOverrideRunnable in order to do so.
// If it is true, we can call the method right now.
if (ret) {
OverrideWithSynthesizedResponse();
}
return NS_OK;
}
mozilla::ipc::IPCResult HttpChannelChild::RecvFinishInterceptedRedirect() {
// Hold a ref to this to keep it from being deleted by Send__delete__()
RefPtr<HttpChannelChild> self(this);
Send__delete__(this);
{
// Reset the event target since the IPC actor is about to be destroyed.
// Following channel event should be handled on main thread.
MutexAutoLock lock(mEventTargetMutex);
mNeckoTarget = nullptr;
}
// The IPDL connection was torn down by a interception logic in
// CompleteRedirectSetup, and we need to call FinishInterceptedRedirect.
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
Unused << neckoTarget->Dispatch(
NewRunnableMethod("net::HttpChannelChild::FinishInterceptedRedirect",
this, &HttpChannelChild::FinishInterceptedRedirect),
NS_DISPATCH_NORMAL);
return IPC_OK();
}
void HttpChannelChild::DeleteSelf() { Send__delete__(this); }
class ContinueDoNotifyListenerEvent
: public NeckoTargetChannelEvent<HttpChannelChild> {
public:
explicit ContinueDoNotifyListenerEvent(HttpChannelChild* child)
: NeckoTargetChannelEvent<HttpChannelChild>(child) {}
void Run() override { mChild->ContinueDoNotifyListener(); }
};
void HttpChannelChild::DoNotifyListener() {
LOG(("HttpChannelChild::DoNotifyListener this=%p", this));
MOZ_ASSERT(NS_IsMainThread());
// In case nsHttpChannel::OnStartRequest wasn't called (e.g. due to flag
// LOAD_ONLY_IF_MODIFIED) we want to set mAfterOnStartRequestBegun to true
// before notifying listener.
if (!mAfterOnStartRequestBegun) {
mAfterOnStartRequestBegun = true;
}
if (mListener && !mOnStartRequestCalled) {
nsCOMPtr<nsIStreamListener> listener = mListener;
mOnStartRequestCalled = true; // avoid reentrancy bugs by setting this now
listener->OnStartRequest(this);
}
mOnStartRequestCalled = true;
mEventQ->RunOrEnqueue(new ContinueDoNotifyListenerEvent(this));
}
void HttpChannelChild::ContinueDoNotifyListener() {
LOG(("HttpChannelChild::ContinueDoNotifyListener this=%p", this));
MOZ_ASSERT(NS_IsMainThread());
// Make sure mIsPending is set to false. At this moment we are done from
// the point of view of our consumer and we have to report our self
// as not-pending.
mIsPending = false;
if (mListener && !mOnStopRequestCalled) {
nsCOMPtr<nsIStreamListener> listener = mListener;
mOnStopRequestCalled = true;
listener->OnStopRequest(this, mStatus);
}
mOnStopRequestCalled = true;
// notify "http-on-stop-request" observers
gHttpHandler->OnStopRequest(this);
// This channel has finished its job, potentially release any tail-blocked
// requests with this.
RemoveAsNonTailRequest();
// We have to make sure to drop the references to listeners and callbacks
// no longer needed.
ReleaseListeners();
DoNotifyListenerCleanup();
// If this is a navigation, then we must let the docshell flush the reports
// to the console later. The LoadDocument() is pointing at the detached
// document that started the navigation. We want to show the reports on the
// new document. Otherwise the console is wiped and the user never sees
// the information.
if (!IsNavigation()) {
if (mLoadGroup) {
FlushConsoleReports(mLoadGroup);
} else if (mLoadInfo) {
RefPtr<dom::Document> doc;
mLoadInfo->GetLoadingDocument(getter_AddRefs(doc));
FlushConsoleReports(doc);
}
}
}
void HttpChannelChild::FinishInterceptedRedirect() {
nsresult rv;
MOZ_ASSERT(!mInterceptedRedirectContext, "the context should be null!");
rv = AsyncOpen(mInterceptedRedirectListener);
mInterceptedRedirectListener = nullptr;
mInterceptedRedirectContext = nullptr;
if (mInterceptingChannel) {
mInterceptingChannel->CleanupRedirectingChannel(rv);
mInterceptingChannel = nullptr;
}
if (mOverrideRunnable) {
mOverrideRunnable->OverrideWithSynthesizedResponse();
mOverrideRunnable = nullptr;
}
}
mozilla::ipc::IPCResult HttpChannelChild::RecvReportSecurityMessage(
const nsString& messageTag, const nsString& messageCategory) {
DebugOnly<nsresult> rv = AddSecurityMessage(messageTag, messageCategory);
MOZ_ASSERT(NS_SUCCEEDED(rv));
return IPC_OK();
}
class Redirect1Event : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
Redirect1Event(HttpChannelChild* child, const uint32_t& registrarId,
const URIParams& newURI, const uint32_t& newLoadFlags,
const uint32_t& redirectFlags,
const ParentLoadInfoForwarderArgs& loadInfoForwarder,
const nsHttpResponseHead& responseHead,
const nsACString& securityInfoSerialization,
const uint64_t& channelId, const ResourceTimingStruct& timing)
: NeckoTargetChannelEvent<HttpChannelChild>(child),
mRegistrarId(registrarId),
mNewURI(newURI),
mNewLoadFlags(newLoadFlags),
mRedirectFlags(redirectFlags),
mResponseHead(responseHead),
mSecurityInfoSerialization(securityInfoSerialization),
mChannelId(channelId),
mLoadInfoForwarder(loadInfoForwarder),
mTiming(timing) {}
void Run() override {
mChild->Redirect1Begin(mRegistrarId, mNewURI, mNewLoadFlags, mRedirectFlags,
mLoadInfoForwarder, mResponseHead,
mSecurityInfoSerialization, mChannelId, mTiming);
}
private:
uint32_t mRegistrarId;
URIParams mNewURI;
uint32_t mNewLoadFlags;
uint32_t mRedirectFlags;
nsHttpResponseHead mResponseHead;
nsCString mSecurityInfoSerialization;
uint64_t mChannelId;
ParentLoadInfoForwarderArgs mLoadInfoForwarder;
ResourceTimingStruct mTiming;
};
mozilla::ipc::IPCResult HttpChannelChild::RecvRedirect1Begin(
const uint32_t& registrarId, const URIParams& newUri,
const uint32_t& newLoadFlags, const uint32_t& redirectFlags,
const ParentLoadInfoForwarderArgs& loadInfoForwarder,
const nsHttpResponseHead& responseHead,
const nsCString& securityInfoSerialization, const uint64_t& channelId,
const NetAddr& oldPeerAddr, const ResourceTimingStruct& timing) {
// TODO: handle security info
LOG(("HttpChannelChild::RecvRedirect1Begin [this=%p]\n", this));
// We set peer address of child to the old peer,
// Then it will be updated to new peer in OnStartRequest
mPeerAddr = oldPeerAddr;
// Cookies headers should not be visible to the child process
MOZ_ASSERT(!nsHttpResponseHead(responseHead).HasHeader(nsHttp::Set_Cookie));
mEventQ->RunOrEnqueue(new Redirect1Event(
this, registrarId, newUri, newLoadFlags, redirectFlags, loadInfoForwarder,
responseHead, securityInfoSerialization, channelId, timing));
return IPC_OK();
}
nsresult HttpChannelChild::SetupRedirect(nsIURI* uri,
const nsHttpResponseHead* responseHead,
const uint32_t& redirectFlags,
nsIChannel** outChannel) {
LOG(("HttpChannelChild::SetupRedirect [this=%p]\n", this));
nsresult rv;
nsCOMPtr<nsIIOService> ioService;
rv = gHttpHandler->GetIOService(getter_AddRefs(ioService));
NS_ENSURE_SUCCESS(rv, rv);
nsCOMPtr<nsIChannel> newChannel;
nsCOMPtr<nsILoadInfo> redirectLoadInfo =
CloneLoadInfoForRedirect(uri, redirectFlags);
rv = NS_NewChannelInternal(getter_AddRefs(newChannel), uri, redirectLoadInfo,
nullptr, // PerformanceStorage
nullptr, // aLoadGroup
nullptr, // aCallbacks
nsIRequest::LOAD_NORMAL, ioService);
NS_ENSURE_SUCCESS(rv, rv);
// We won't get OnStartRequest, set cookies here.
mResponseHead = new nsHttpResponseHead(*responseHead);
bool rewriteToGET = HttpBaseChannel::ShouldRewriteRedirectToGET(
mResponseHead->Status(), mRequestHead.ParsedMethod());
rv = SetupReplacementChannel(uri, newChannel, !rewriteToGET, redirectFlags);
NS_ENSURE_SUCCESS(rv, rv);
nsCOMPtr<nsIHttpChannelChild> httpChannelChild =
do_QueryInterface(newChannel);
if (httpChannelChild) {
bool shouldUpgrade = false;
auto channelChild = static_cast<HttpChannelChild*>(httpChannelChild.get());
if (mShouldInterceptSubsequentRedirect) {
// In the case where there was a synthesized response that caused a
// redirection, we must force the new channel to intercept the request in
// the parent before a network transaction is initiated.
rv = httpChannelChild->ForceIntercepted(false, false);
} else if (mRedirectMode == nsIHttpChannelInternal::REDIRECT_MODE_MANUAL &&
((redirectFlags & (nsIChannelEventSink::REDIRECT_TEMPORARY |
nsIChannelEventSink::REDIRECT_PERMANENT)) !=
0) &&
channelChild->ShouldInterceptURI(uri, shouldUpgrade)) {
// In the case where the redirect mode is manual, we need to check whether
// the post-redirect channel needs to be intercepted. If that is the
// case, force the new channel to intercept the request in the parent
// similar to the case above, but also remember that ShouldInterceptURI()
// returned true to avoid calling it a second time.
rv = httpChannelChild->ForceIntercepted(true, shouldUpgrade);
}
MOZ_ASSERT(NS_SUCCEEDED(rv));
}
mRedirectChannelChild = do_QueryInterface(newChannel);
newChannel.forget(outChannel);
return NS_OK;
}
void HttpChannelChild::Redirect1Begin(
const uint32_t& registrarId, const URIParams& newOriginalURI,
const uint32_t& newLoadFlags, const uint32_t& redirectFlags,
const ParentLoadInfoForwarderArgs& loadInfoForwarder,
const nsHttpResponseHead& responseHead,
const nsACString& securityInfoSerialization, const uint64_t& channelId,
const ResourceTimingStruct& timing) {
nsresult rv;
LOG(("HttpChannelChild::Redirect1Begin [this=%p]\n", this));
ipc::MergeParentLoadInfoForwarder(loadInfoForwarder, mLoadInfo);
nsCOMPtr<nsIURI> uri = DeserializeURI(newOriginalURI);
mTransactionTimings = timing;
PROFILER_ADD_NETWORK_MARKER(mURI, mPriority, channelId,
NetworkLoadType::LOAD_REDIRECT,
mLastStatusReported, TimeStamp::Now(), 0,
kCacheUnknown, &mTransactionTimings, uri);
if (!securityInfoSerialization.IsEmpty()) {
rv = NS_DeserializeObject(securityInfoSerialization,
getter_AddRefs(mSecurityInfo));
MOZ_DIAGNOSTIC_ASSERT(NS_SUCCEEDED(rv),
"Deserializing security info should not fail");
}
nsCOMPtr<nsIChannel> newChannel;
rv = SetupRedirect(uri, &responseHead, redirectFlags,
getter_AddRefs(newChannel));
if (NS_SUCCEEDED(rv)) {
MOZ_ALWAYS_SUCCEEDS(newChannel->SetLoadFlags(newLoadFlags));
if (mRedirectChannelChild) {
// Set the channelId allocated in parent to the child instance
nsCOMPtr<nsIHttpChannel> httpChannel =
do_QueryInterface(mRedirectChannelChild);
if (httpChannel) {
rv = httpChannel->SetChannelId(channelId);
MOZ_ASSERT(NS_SUCCEEDED(rv));
}
mRedirectChannelChild->ConnectParent(registrarId);
}
nsCOMPtr<nsIEventTarget> target = GetNeckoTarget();
MOZ_ASSERT(target);
rv = gHttpHandler->AsyncOnChannelRedirect(this, newChannel, redirectFlags,
target);
}
if (NS_FAILED(rv)) OnRedirectVerifyCallback(rv);
}
void HttpChannelChild::BeginNonIPCRedirect(
nsIURI* responseURI, const nsHttpResponseHead* responseHead,
bool aResponseRedirected) {
LOG(("HttpChannelChild::BeginNonIPCRedirect [this=%p]\n", this));
// This method is only used by child-side service workers. It should not be
// used by new code. We want to remove it in the future.
MOZ_DIAGNOSTIC_ASSERT(mSynthesizedResponse);
// If the response has been redirected, propagate all the URLs to content.
// Thus, the exact value of the redirect flag does not matter as long as it's
// not REDIRECT_INTERNAL.
const uint32_t redirectFlag = aResponseRedirected
? nsIChannelEventSink::REDIRECT_TEMPORARY
: nsIChannelEventSink::REDIRECT_INTERNAL;
nsCOMPtr<nsIChannel> newChannel;
nsresult rv = SetupRedirect(responseURI, responseHead, redirectFlag,
getter_AddRefs(newChannel));
if (NS_SUCCEEDED(rv)) {
// Ensure that the new channel shares the original channel's security
// information, since it won't be provided via IPC. In particular, if the
// target of this redirect is a synthesized response that has its own
// security info, the pre-redirect channel has already received it and it
// must be propagated to the post-redirect channel.
nsCOMPtr<nsIHttpChannelChild> channelChild = do_QueryInterface(newChannel);
if (mSecurityInfo && channelChild) {
HttpChannelChild* httpChannelChild =
static_cast<HttpChannelChild*>(channelChild.get());
httpChannelChild->OverrideSecurityInfoForNonIPCRedirect(mSecurityInfo);
}
// Normally we don't propagate the LoadInfo's service worker tainting
// synthesis flag on redirect. A real redirect normally will want to allow
// normal tainting to proceed from its starting taint. For this particular
// redirect, though, we are performing a redirect to communicate the URL of
// the service worker synthetic response itself. This redirect still
// represents the synthetic response, so we must preserve the flag.
if (mLoadInfo->GetServiceWorkerTaintingSynthesized()) {
nsCOMPtr<nsILoadInfo> newChannelLoadInfo = newChannel->LoadInfo();
if (newChannelLoadInfo) {
newChannelLoadInfo->SynthesizeServiceWorkerTainting(
mLoadInfo->GetTainting());
}
}
nsCOMPtr<nsIEventTarget> target = GetNeckoTarget();
MOZ_ASSERT(target);
rv = gHttpHandler->AsyncOnChannelRedirect(this, newChannel, redirectFlag,
target);
}
if (NS_FAILED(rv)) OnRedirectVerifyCallback(rv);
}
void HttpChannelChild::OverrideSecurityInfoForNonIPCRedirect(
nsISupports* securityInfo) {
mResponseCouldBeSynthesized = true;
DebugOnly<nsresult> rv = OverrideSecurityInfo(securityInfo);
MOZ_ASSERT(NS_SUCCEEDED(rv));
}
class Redirect3Event : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
explicit Redirect3Event(HttpChannelChild* child)
: NeckoTargetChannelEvent<HttpChannelChild>(child) {}
void Run() override { mChild->Redirect3Complete(nullptr); }
};
mozilla::ipc::IPCResult HttpChannelChild::RecvRedirect3Complete() {
LOG(("HttpChannelChild::RecvRedirect3Complete [this=%p]\n", this));
mEventQ->RunOrEnqueue(new Redirect3Event(this));
return IPC_OK();
}
class HttpFlushedForDiversionEvent
: public NeckoTargetChannelEvent<HttpChannelChild> {
public:
explicit HttpFlushedForDiversionEvent(HttpChannelChild* aChild)
: NeckoTargetChannelEvent<HttpChannelChild>(aChild) {
MOZ_RELEASE_ASSERT(aChild);
}
void Run() override { mChild->FlushedForDiversion(); }
};
void HttpChannelChild::ProcessFlushedForDiversion() {
LOG(("HttpChannelChild::ProcessFlushedForDiversion [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
MOZ_RELEASE_ASSERT(mDivertingToParent);
mEventQ->RunOrEnqueue(new HttpFlushedForDiversionEvent(this), true);
}
void HttpChannelChild::ProcessNotifyChannelClassifierProtectionDisabled(
uint32_t aAcceptedReason) {
LOG(
("HttpChannelChild::ProcessNotifyChannelClassifierProtectionDisabled "
"[this=%p aAcceptedReason=%" PRIu32 "]\n",
this, aAcceptedReason));
MOZ_ASSERT(OnSocketThread());
RefPtr<HttpChannelChild> self = this;
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
neckoTarget->Dispatch(
NS_NewRunnableFunction(
"AntiTrackingCommon::NotifyChannelClassifierProtectionDisabled",
[self, aAcceptedReason]() {
UrlClassifierCommon::NotifyChannelClassifierProtectionDisabled(
self, aAcceptedReason);
}),
NS_DISPATCH_NORMAL);
}
void HttpChannelChild::ProcessNotifyCookieAllowed() {
LOG(("HttpChannelChild::ProcessNotifyCookieAllowed [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
RefPtr<HttpChannelChild> self = this;
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
neckoTarget->Dispatch(
NS_NewRunnableFunction(
"UrlClassifierCommon::NotifyBlockingDecision",
[self]() {
AntiTrackingCommon::NotifyBlockingDecision(
self, AntiTrackingCommon::BlockingDecision::eAllow, 0);
}),
NS_DISPATCH_NORMAL);
}
void HttpChannelChild::ProcessNotifyCookieBlocked(uint32_t aRejectedReason) {
LOG(("HttpChannelChild::ProcessNotifyCookieBlocked [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
RefPtr<HttpChannelChild> self = this;
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
neckoTarget->Dispatch(
NS_NewRunnableFunction("AntiTrackingCommon::NotifyBlockingDecision",
[self, aRejectedReason]() {
AntiTrackingCommon::NotifyBlockingDecision(
self,
AntiTrackingCommon::BlockingDecision::eBlock,
aRejectedReason);
}),
NS_DISPATCH_NORMAL);
}
void HttpChannelChild::ProcessNotifyClassificationFlags(
uint32_t aClassificationFlags, bool aIsThirdParty) {
LOG(
("HttpChannelChild::ProcessNotifyClassificationFlags thirdparty=%d "
"flags=%" PRIu32 " [this=%p]\n",
static_cast<int>(aIsThirdParty), aClassificationFlags, this));
MOZ_ASSERT(OnSocketThread());
AddClassificationFlags(aClassificationFlags, aIsThirdParty);
}
void HttpChannelChild::ProcessNotifyFlashPluginStateChanged(
nsIHttpChannel::FlashPluginState aState) {
LOG(("HttpChannelChild::ProcessNotifyFlashPluginStateChanged [this=%p]\n",
this));
MOZ_ASSERT(OnSocketThread());
SetFlashPluginState(aState);
}
void HttpChannelChild::FlushedForDiversion() {
LOG(("HttpChannelChild::FlushedForDiversion [this=%p]\n", this));
MOZ_RELEASE_ASSERT(mDivertingToParent);
// Once this is set, it should not be unset before HttpChannelChild is taken
// down. After it is set, no OnStart/OnData/OnStop callbacks should be
// received from the parent channel, nor dequeued from the ChannelEventQueue.
mFlushedForDiversion = true;
// If we're synthesized, it's up to the SyntheticDiversionListener to invoke
// SendDivertComplete after it has sent the DivertOnStopRequestMessage.
if (!mSynthesizedResponse) {
SendDivertComplete();
}
}
void HttpChannelChild::ProcessSetClassifierMatchedInfo(
const nsCString& aList, const nsCString& aProvider,
const nsCString& aFullHash) {
LOG(("HttpChannelChild::ProcessSetClassifierMatchedInfo [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
neckoTarget->Dispatch(
NewRunnableMethod<const nsCString, const nsCString, const nsCString>(
"HttpChannelChild::SetMatchedInfo", this,
&HttpChannelChild::SetMatchedInfo, aList, aProvider, aFullHash),
NS_DISPATCH_NORMAL);
}
void HttpChannelChild::ProcessSetClassifierMatchedTrackingInfo(
const nsCString& aLists, const nsCString& aFullHashes) {
LOG(("HttpChannelChild::ProcessSetClassifierMatchedTrackingInfo [this=%p]\n",
this));
MOZ_ASSERT(OnSocketThread());
nsTArray<nsCString> lists, fullhashes;
for (const nsACString& token : aLists.Split(',')) {
lists.AppendElement(token);
}
for (const nsACString& token : aFullHashes.Split(',')) {
fullhashes.AppendElement(token);
}
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
neckoTarget->Dispatch(
NewRunnableMethod<const nsTArray<nsCString>, const nsTArray<nsCString>>(
"HttpChannelChild::SetMatchedTrackingInfo", this,
&HttpChannelChild::SetMatchedTrackingInfo, lists, fullhashes),
NS_DISPATCH_NORMAL);
}
void HttpChannelChild::ProcessDivertMessages() {
LOG(("HttpChannelChild::ProcessDivertMessages [this=%p]\n", this));
MOZ_ASSERT(OnSocketThread());
MOZ_RELEASE_ASSERT(mDivertingToParent);
// DivertTo() has been called on parent, so we can now start sending queued
// IPDL messages back to parent listener.
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
nsresult rv =
neckoTarget->Dispatch(NewRunnableMethod("HttpChannelChild::Resume", this,
&HttpChannelChild::Resume),
NS_DISPATCH_NORMAL);
MOZ_RELEASE_ASSERT(NS_SUCCEEDED(rv));
}
// Returns true if has actually completed the redirect and cleaned up the
// channel, or false the interception logic kicked in and we need to asyncly
// call FinishInterceptedRedirect and CleanupRedirectingChannel.
// The argument is an optional OverrideRunnable that we pass to the redirected
// channel.
bool HttpChannelChild::Redirect3Complete(OverrideRunnable* aRunnable) {
LOG(("HttpChannelChild::Redirect3Complete [this=%p]\n", this));
MOZ_ASSERT(NS_IsMainThread());
nsresult rv = NS_OK;
nsCOMPtr<nsIHttpChannelChild> chan = do_QueryInterface(mRedirectChannelChild);
RefPtr<HttpChannelChild> httpChannelChild =
static_cast<HttpChannelChild*>(chan.get());
// Chrome channel has been AsyncOpen'd. Reflect this in child.
if (mRedirectChannelChild) {
if (httpChannelChild) {
httpChannelChild->mOverrideRunnable = aRunnable;
httpChannelChild->mInterceptingChannel = this;
}
rv = mRedirectChannelChild->CompleteRedirectSetup(mListener, nullptr);
}
if (!httpChannelChild || !httpChannelChild->mShouldParentIntercept) {
// The redirect channel either isn't a HttpChannelChild, or the interception
// logic wasn't triggered, so we can clean it up right here.
CleanupRedirectingChannel(rv);
if (httpChannelChild) {
httpChannelChild->mOverrideRunnable = nullptr;
httpChannelChild->mInterceptingChannel = nullptr;
}
return true;
}
return false;
}
mozilla::ipc::IPCResult HttpChannelChild::RecvCancelRedirected() {
CleanupRedirectingChannel(NS_BINDING_REDIRECTED);
return IPC_OK();
}
void HttpChannelChild::CleanupRedirectingChannel(nsresult rv) {
// Redirecting to new channel: shut this down and init new channel
if (mLoadGroup) mLoadGroup->RemoveRequest(this, nullptr, NS_BINDING_ABORTED);
if (NS_SUCCEEDED(rv)) {
if (mLoadInfo) {
nsCString remoteAddress;
Unused << GetRemoteAddress(remoteAddress);
nsCOMPtr<nsIURI> referrer;
if (mReferrerInfo) {
referrer = mReferrerInfo->GetComputedReferrer();
}
nsCOMPtr<nsIRedirectHistoryEntry> entry = new nsRedirectHistoryEntry(
GetURIPrincipal(), referrer, remoteAddress);
mLoadInfo->AppendRedirectHistoryEntry(entry, false);
}
} else {
NS_WARNING("CompleteRedirectSetup failed, HttpChannelChild already open?");
}
// Release ref to new channel.
mRedirectChannelChild = nullptr;
if (mInterceptListener) {
mInterceptListener->Cleanup();
mInterceptListener = nullptr;
}
ReleaseListeners();
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIChildChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::ConnectParent(uint32_t registrarId) {
LOG(("HttpChannelChild::ConnectParent [this=%p, id=%" PRIu32 "]\n", this,
registrarId));
MOZ_ASSERT(NS_IsMainThread());
mozilla::dom::BrowserChild* browserChild = nullptr;
nsCOMPtr<nsIBrowserChild> iBrowserChild;
GetCallback(iBrowserChild);
if (iBrowserChild) {
browserChild =
static_cast<mozilla::dom::BrowserChild*>(iBrowserChild.get());
}
if (MissingRequiredBrowserChild(browserChild, "http")) {
return NS_ERROR_ILLEGAL_VALUE;
}
if (browserChild && !browserChild->IPCOpen()) {
return NS_ERROR_FAILURE;
}
ContentChild* cc = static_cast<ContentChild*>(gNeckoChild->Manager());
if (cc->IsShuttingDown()) {
return NS_ERROR_FAILURE;
}
HttpBaseChannel::SetDocshellUserAgentOverride();
// The socket transport in the chrome process now holds a logical ref to us
// until OnStopRequest, or we do a redirect, or we hit an IPDL error.
AddRef();
// This must happen before the constructor message is sent. Otherwise messages
// from the parent could arrive quickly and be delivered to the wrong event
// target.
SetEventTarget();
HttpChannelConnectArgs connectArgs(registrarId, mShouldParentIntercept);
PBrowserOrId browser = static_cast<ContentChild*>(gNeckoChild->Manager())
->GetBrowserOrId(browserChild);
if (!gNeckoChild->SendPHttpChannelConstructor(
this, browser, IPC::SerializedLoadContext(this), connectArgs)) {
return NS_ERROR_FAILURE;
}
{
MutexAutoLock lock(mBgChildMutex);
MOZ_ASSERT(!mBgChild);
MOZ_ASSERT(!mBgInitFailCallback);
mBgInitFailCallback = NewRunnableMethod<nsresult>(
"HttpChannelChild::OnRedirectVerifyCallback", this,
&HttpChannelChild::OnRedirectVerifyCallback, NS_ERROR_FAILURE);
RefPtr<HttpBackgroundChannelChild> bgChild =
new HttpBackgroundChannelChild();
MOZ_RELEASE_ASSERT(gSocketTransportService);
RefPtr<HttpChannelChild> self = this;
nsresult rv = gSocketTransportService->Dispatch(
NewRunnableMethod<RefPtr<HttpChannelChild>>(
"HttpBackgroundChannelChild::Init", bgChild,
&HttpBackgroundChannelChild::Init, std::move(self)),
NS_DISPATCH_NORMAL);
if (NS_WARN_IF(NS_FAILED(rv))) {
return rv;
}
mBgChild = bgChild.forget();
}
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::CompleteRedirectSetup(nsIStreamListener* listener,
nsISupports* aContext) {
LOG(("HttpChannelChild::FinishRedirectSetup [this=%p]\n", this));
MOZ_ASSERT(NS_IsMainThread());
NS_ENSURE_TRUE(!mIsPending, NS_ERROR_IN_PROGRESS);
NS_ENSURE_TRUE(!mWasOpened, NS_ERROR_ALREADY_OPENED);
if (mShouldParentIntercept) {
// This is a redirected channel, and the corresponding parent channel has
// started AsyncOpen but was intercepted and suspended. We must tear it down
// and start fresh - we will intercept the child channel this time, before
// creating a new parent channel unnecessarily.
// Since this method is called from RecvRedirect3Complete which itself is
// called from either OnRedirectVerifyCallback via OverrideRunnable, or from
// RecvRedirect3Complete. The order of events must always be:
// 1. Teardown the IPDL connection
// 2. AsyncOpen the connection again
// 3. Cleanup the redirecting channel (the one calling Redirect3Complete)
// 4. [optional] Call OverrideWithSynthesizedResponse on the redirected
// channel if the call came from OverrideRunnable.
mInterceptedRedirectListener = listener;
mInterceptedRedirectContext = aContext;
// This will send a message to the parent notifying it that we are closing
// down. After closing the IPC channel, we will proceed to execute
// FinishInterceptedRedirect() which AsyncOpen's the channel again.
SendFinishInterceptedRedirect();
// XXX valentin: The interception logic should be rewritten to avoid
// calling AsyncOpen on the channel _after_ we call Send__delete__()
return NS_OK;
}
/*
* No need to check for cancel: we don't get here if nsHttpChannel canceled
* before AsyncOpen(); if it's canceled after that, OnStart/Stop will just
* get called with error code as usual. So just setup mListener and make the
* channel reflect AsyncOpen'ed state.
*/
mIsPending = true;
mWasOpened = true;
mListener = listener;
// add ourselves to the load group.
if (mLoadGroup) mLoadGroup->AddRequest(this, nullptr);
// We already have an open IPDL connection to the parent. If on-modify-request
// listeners or load group observers canceled us, let the parent handle it
// and send it back to us naturally.
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIAsyncVerifyRedirectCallback
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::OnRedirectVerifyCallback(nsresult result) {
LOG(("HttpChannelChild::OnRedirectVerifyCallback [this=%p]\n", this));
MOZ_ASSERT(NS_IsMainThread());
Maybe<URIParams> redirectURI;
nsresult rv;
nsCOMPtr<nsIHttpChannel> newHttpChannel =
do_QueryInterface(mRedirectChannelChild);
if (NS_SUCCEEDED(result) && !mRedirectChannelChild) {
// mRedirectChannelChild doesn't exist means we're redirecting to a protocol
// that doesn't implement nsIChildChannel. The redirect result should be set
// as failed by veto listeners and shouldn't enter this condition. As the
// last resort, we synthesize the error result as NS_ERROR_DOM_BAD_URI here
// to let nsHttpChannel::ContinueProcessResponse2 know it's redirecting to
// another protocol and throw an error.
LOG((" redirecting to a protocol that doesn't implement nsIChildChannel"));
result = NS_ERROR_DOM_BAD_URI;
}
nsCOMPtr<nsIReferrerInfo> referrerInfo;
if (newHttpChannel) {
// Must not be called until after redirect observers called.
newHttpChannel->SetOriginalURI(mOriginalURI);
referrerInfo = newHttpChannel->GetReferrerInfo();
}
if (mRedirectingForSubsequentSynthesizedResponse) {
nsCOMPtr<nsIHttpChannelChild> httpChannelChild =
do_QueryInterface(mRedirectChannelChild);
RefPtr<HttpChannelChild> redirectedChannel =
static_cast<HttpChannelChild*>(httpChannelChild.get());
// redirectChannel will be NULL if mRedirectChannelChild isn't a
// nsIHttpChannelChild (it could be a DataChannelChild).
RefPtr<InterceptStreamListener> streamListener =
new InterceptStreamListener(redirectedChannel, nullptr);
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
nsCOMPtr<nsIInterceptedBodyCallback> callback =
mSynthesizedCallback.forget();
Unused << neckoTarget->Dispatch(
new OverrideRunnable(this, redirectedChannel, streamListener,
mSynthesizedInput, callback, mResponseHead,
mSynthesizedCacheInfo),
NS_DISPATCH_NORMAL);
return NS_OK;
}
RequestHeaderTuples emptyHeaders;
RequestHeaderTuples* headerTuples = &emptyHeaders;
nsLoadFlags loadFlags = 0;
Maybe<CorsPreflightArgs> corsPreflightArgs;
nsCOMPtr<nsIHttpChannelChild> newHttpChannelChild =
do_QueryInterface(mRedirectChannelChild);
if (newHttpChannelChild && NS_SUCCEEDED(result)) {
rv = newHttpChannelChild->AddCookiesToRequest();
MOZ_ASSERT(NS_SUCCEEDED(rv));
rv = newHttpChannelChild->GetClientSetRequestHeaders(&headerTuples);
MOZ_ASSERT(NS_SUCCEEDED(rv));
newHttpChannelChild->GetClientSetCorsPreflightParameters(corsPreflightArgs);
}
/* If the redirect was canceled, bypass OMR and send an empty API
* redirect URI */
SerializeURI(nullptr, redirectURI);
if (NS_SUCCEEDED(result)) {
// Note: this is where we would notify "http-on-modify-response" observers.
// We have deliberately disabled this for child processes (see bug 806753)
//
// After we verify redirect, nsHttpChannel may hit the network: must give
// "http-on-modify-request" observers the chance to cancel before that.
// base->CallOnModifyRequestObservers();
nsCOMPtr<nsIHttpChannelInternal> newHttpChannelInternal =
do_QueryInterface(mRedirectChannelChild);
if (newHttpChannelInternal) {
nsCOMPtr<nsIURI> apiRedirectURI;
rv = newHttpChannelInternal->GetApiRedirectToURI(
getter_AddRefs(apiRedirectURI));
if (NS_SUCCEEDED(rv) && apiRedirectURI) {
/* If there was an API redirect of this channel, we need to send it
* up here, since it can't be sent via SendAsyncOpen. */
SerializeURI(apiRedirectURI, redirectURI);
}
}
nsCOMPtr<nsIRequest> request = do_QueryInterface(mRedirectChannelChild);
if (request) {
request->GetLoadFlags(&loadFlags);
}
}
MaybeCallSynthesizedCallback();
bool chooseAppcache = false;
nsCOMPtr<nsIApplicationCacheChannel> appCacheChannel =
do_QueryInterface(newHttpChannel);
if (appCacheChannel) {
appCacheChannel->GetChooseApplicationCache(&chooseAppcache);
}
nsCOMPtr<nsILoadInfo> newChannelLoadInfo = nullptr;
nsCOMPtr<nsIChannel> newChannel = do_QueryInterface(mRedirectChannelChild);
if (newChannel) {
newChannelLoadInfo = newChannel->LoadInfo();
}
ChildLoadInfoForwarderArgs loadInfoForwarder;
LoadInfoToChildLoadInfoForwarder(newChannelLoadInfo, &loadInfoForwarder);
if (CanSend())
SendRedirect2Verify(result, *headerTuples, loadInfoForwarder, loadFlags,
referrerInfo, redirectURI, corsPreflightArgs,
chooseAppcache);
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIRequest
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::Cancel(nsresult status) {
LOG(("HttpChannelChild::Cancel [this=%p, status=%" PRIx32 "]\n", this,
static_cast<uint32_t>(status)));
LogCallingScriptLocation(this);
MOZ_ASSERT(NS_IsMainThread());
if (!mCanceled) {
// If this cancel occurs before nsHttpChannel has been set up, AsyncOpen
// is responsible for cleaning up.
mCanceled = true;
mStatus = status;
if (RemoteChannelExists()) {
SendCancel(status);
}
// If the channel is intercepted and already pumping, then just
// cancel the pump. This will call OnStopRequest().
if (mSynthesizedResponsePump) {
mSynthesizedResponsePump->Cancel(status);
}
// If we are canceled while intercepting, but not yet pumping, then
// we must call AsyncAbort() to trigger OnStopRequest().
else if (mInterceptListener) {
mInterceptListener->Cleanup();
mInterceptListener = nullptr;
Unused << AsyncAbort(status);
}
}
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::Suspend() {
LOG(("HttpChannelChild::Suspend [this=%p, mSuspendCount=%" PRIu32 ", "
"mDivertingToParent=%d]\n",
this, mSuspendCount + 1, static_cast<bool>(mDivertingToParent)));
MOZ_ASSERT(NS_IsMainThread());
NS_ENSURE_TRUE(RemoteChannelExists() || mInterceptListener,
NS_ERROR_NOT_AVAILABLE);
// SendSuspend only once, when suspend goes from 0 to 1.
// Don't SendSuspend at all if we're diverting callbacks to the parent;
// suspend will be called at the correct time in the parent itself.
if (!mSuspendCount++ && !mDivertingToParent) {
if (RemoteChannelExists()) {
SendSuspend();
mSuspendSent = true;
}
}
if (mSynthesizedResponsePump) {
mSynthesizedResponsePump->Suspend();
}
mEventQ->Suspend();
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::Resume() {
LOG(("HttpChannelChild::Resume [this=%p, mSuspendCount=%" PRIu32 ", "
"mDivertingToParent=%d]\n",
this, mSuspendCount - 1, static_cast<bool>(mDivertingToParent)));
MOZ_ASSERT(NS_IsMainThread());
NS_ENSURE_TRUE(RemoteChannelExists() || mInterceptListener,
NS_ERROR_NOT_AVAILABLE);
NS_ENSURE_TRUE(mSuspendCount > 0, NS_ERROR_UNEXPECTED);
nsresult rv = NS_OK;
// SendResume only once, when suspend count drops to 0.
// Don't SendResume at all if we're diverting callbacks to the parent (unless
// suspend was sent earlier); otherwise, resume will be called at the correct
// time in the parent itself.
if (!--mSuspendCount && (!mDivertingToParent || mSuspendSent)) {
if (RemoteChannelExists()) {
SendResume();
}
if (mCallOnResume) {
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
RefPtr<HttpChannelChild> self = this;
std::function<nsresult(HttpChannelChild*)> callOnResume = nullptr;
std::swap(callOnResume, mCallOnResume);
rv = neckoTarget->Dispatch(
NS_NewRunnableFunction(
"net::HttpChannelChild::mCallOnResume",
[callOnResume, self{std::move(self)}]() { callOnResume(self); }),
NS_DISPATCH_NORMAL);
}
}
if (mSynthesizedResponsePump) {
mSynthesizedResponsePump->Resume();
}
mEventQ->Resume();
return rv;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::GetSecurityInfo(nsISupports** aSecurityInfo) {
NS_ENSURE_ARG_POINTER(aSecurityInfo);
NS_IF_ADDREF(*aSecurityInfo = mSecurityInfo);
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::AsyncOpen(nsIStreamListener* aListener) {
LOG(("HttpChannelChild::AsyncOpen [this=%p uri=%s]\n", this, mSpec.get()));
nsresult rv = AsyncOpenInternal(aListener);
if (NS_FAILED(rv)) {
uint32_t blockingReason = 0;
if (mLoadInfo) {
mLoadInfo->GetRequestBlockingReason(&blockingReason);
}
LOG(
("HttpChannelChild::AsyncOpen failed [this=%p rv=0x%08x "
"blocking-reason=%u]\n",
this, static_cast<uint32_t>(rv), blockingReason));
gHttpHandler->OnFailedOpeningRequest(this);
}
return rv;
}
nsresult HttpChannelChild::AsyncOpenInternal(nsIStreamListener* aListener) {
nsresult rv;
nsCOMPtr<nsIStreamListener> listener = aListener;
rv = nsContentSecurityManager::doContentSecurityCheck(this, listener);
if (NS_WARN_IF(NS_FAILED(rv))) {
ReleaseListeners();
return rv;
}
MOZ_ASSERT(
!mLoadInfo || mLoadInfo->GetSecurityMode() == 0 ||
mLoadInfo->GetInitialSecurityCheckDone() ||
(mLoadInfo->GetSecurityMode() ==
nsILoadInfo::SEC_ALLOW_CROSS_ORIGIN_DATA_IS_NULL &&
nsContentUtils::IsSystemPrincipal(mLoadInfo->LoadingPrincipal())),
"security flags in loadInfo but doContentSecurityCheck() not called");
LogCallingScriptLocation(this);
if (!mLoadGroup && !mCallbacks) {
// If no one called SetLoadGroup or SetNotificationCallbacks, the private
// state has not been updated on PrivateBrowsingChannel (which we derive
// from) Hence, we have to call UpdatePrivateBrowsing() here
UpdatePrivateBrowsing();
}
#ifdef DEBUG
AssertPrivateBrowsingId();
#endif
if (mCanceled) {
ReleaseListeners();
return mStatus;
}
NS_ENSURE_TRUE(gNeckoChild != nullptr, NS_ERROR_FAILURE);
NS_ENSURE_ARG_POINTER(listener);
NS_ENSURE_TRUE(!mIsPending, NS_ERROR_IN_PROGRESS);
NS_ENSURE_TRUE(!mWasOpened, NS_ERROR_ALREADY_OPENED);
if (MaybeWaitForUploadStreamLength(listener, nullptr)) {
return NS_OK;
}
if (!mAsyncOpenTimeOverriden) {
mAsyncOpenTime = TimeStamp::Now();
}
#ifdef MOZ_TASK_TRACER
if (tasktracer::IsStartLogging()) {
nsCOMPtr<nsIURI> uri;
GetURI(getter_AddRefs(uri));
nsAutoCString urispec;
uri->GetSpec(urispec);
tasktracer::AddLabel("HttpChannelChild::AsyncOpen %s", urispec.get());
}
#endif
// Port checked in parent, but duplicate here so we can return with error
// immediately
rv = NS_CheckPortSafety(mURI);
if (NS_FAILED(rv)) {
ReleaseListeners();
return rv;
}
nsAutoCString cookie;
if (NS_SUCCEEDED(mRequestHead.GetHeader(nsHttp::Cookie, cookie))) {
mUserSetCookieHeader = cookie;
}
DebugOnly<nsresult> check = AddCookiesToRequest();
MOZ_ASSERT(NS_SUCCEEDED(check));
//
// NOTE: From now on we must return NS_OK; all errors must be handled via
// OnStart/OnStopRequest
//
// We notify "http-on-opening-request" observers in the child
// process so that devtools can capture a stack trace at the
// appropriate spot. See bug 806753 for some information about why
// other http-* notifications are disabled in child processes.
gHttpHandler->OnOpeningRequest(this);
mLastStatusReported = TimeStamp::Now();
PROFILER_ADD_NETWORK_MARKER(mURI, mPriority, mChannelId,
NetworkLoadType::LOAD_START,
mChannelCreationTimestamp, mLastStatusReported, 0,
kCacheUnknown, nullptr, nullptr);
mIsPending = true;
mWasOpened = true;
mListener = listener;
// add ourselves to the load group.
if (mLoadGroup) mLoadGroup->AddRequest(this, nullptr);
if (mCanceled) {
// We may have been canceled already, either by on-modify-request
// listeners or by load group observers; in that case, don't create IPDL
// connection. See nsHttpChannel::AsyncOpen().
ReleaseListeners();
return mStatus;
}
// Set user agent override from docshell
HttpBaseChannel::SetDocshellUserAgentOverride();
MOZ_ASSERT_IF(mPostRedirectChannelShouldUpgrade,
mPostRedirectChannelShouldIntercept);
bool shouldUpgrade = mPostRedirectChannelShouldUpgrade;
if (mPostRedirectChannelShouldIntercept ||
ShouldInterceptURI(mURI, shouldUpgrade)) {
RefPtr<HttpChannelChild> self = this;
std::function<void(bool)> callback = [self,
shouldUpgrade](bool aStorageAllowed) {
if (!aStorageAllowed) {
nsresult rv = self->ContinueAsyncOpen();
if (NS_WARN_IF(NS_FAILED(rv))) {
Unused << self->AsyncAbort(rv);
}
return;
}
self->mResponseCouldBeSynthesized = true;
nsCOMPtr<nsINetworkInterceptController> controller;
self->GetCallback(controller);
self->mInterceptListener = new InterceptStreamListener(self, nullptr);
RefPtr<InterceptedChannelContent> intercepted =
new InterceptedChannelContent(
self, controller, self->mInterceptListener, shouldUpgrade);
intercepted->NotifyController();
};
ClassifierDummyChannel::StorageAllowedState state =
ClassifierDummyChannel::StorageAllowed(this, callback);
if (state == ClassifierDummyChannel::eStorageGranted) {
callback(true);
return NS_OK;
}
if (state == ClassifierDummyChannel::eAsyncNeeded) {
// The async callback will be executed eventually.
return NS_OK;
}
MOZ_ASSERT(state == ClassifierDummyChannel::eStorageDenied);
// Fall through
}
rv = ContinueAsyncOpen();
if (NS_FAILED(rv)) {
ReleaseListeners();
}
return rv;
}
// Assigns an nsIEventTarget to our IPDL actor so that IPC messages are sent to
// the correct DocGroup/TabGroup.
void HttpChannelChild::SetEventTarget() {
nsCOMPtr<nsILoadInfo> loadInfo = LoadInfo();
nsCOMPtr<nsIEventTarget> target =
nsContentUtils::GetEventTargetByLoadInfo(loadInfo, TaskCategory::Network);
if (!target) {
return;
}
gNeckoChild->SetEventTargetForActor(this, target);
{
MutexAutoLock lock(mEventTargetMutex);
mNeckoTarget = target;
}
}
already_AddRefed<nsIEventTarget> HttpChannelChild::GetNeckoTarget() {
nsCOMPtr<nsIEventTarget> target;
{
MutexAutoLock lock(mEventTargetMutex);
target = mNeckoTarget;
}
if (!target) {
target = GetMainThreadEventTarget();
}
return target.forget();
}
already_AddRefed<nsIEventTarget> HttpChannelChild::GetODATarget() {
nsCOMPtr<nsIEventTarget> target;
{
MutexAutoLock lock(mEventTargetMutex);
target = mODATarget ? mODATarget : mNeckoTarget;
}
if (!target) {
target = GetMainThreadEventTarget();
}
return target.forget();
}
nsresult HttpChannelChild::ContinueAsyncOpen() {
nsresult rv;
nsCString appCacheClientId;
if (mInheritApplicationCache) {
// Pick up an application cache from the notification
// callbacks if available
nsCOMPtr<nsIApplicationCacheContainer> appCacheContainer;
GetCallback(appCacheContainer);
if (appCacheContainer) {
nsCOMPtr<nsIApplicationCache> appCache;
nsresult rv =
appCacheContainer->GetApplicationCache(getter_AddRefs(appCache));
if (NS_SUCCEEDED(rv) && appCache) {
appCache->GetClientID(appCacheClientId);
}
}
}
//
// Send request to the chrome process...
//
mozilla::dom::BrowserChild* browserChild = nullptr;
nsCOMPtr<nsIBrowserChild> iBrowserChild;
GetCallback(iBrowserChild);
if (iBrowserChild) {
browserChild =
static_cast<mozilla::dom::BrowserChild*>(iBrowserChild.get());
}
if (MissingRequiredBrowserChild(browserChild, "http")) {
return NS_ERROR_ILLEGAL_VALUE;
}
// This id identifies the inner window's top-level document,
// which changes on every new load or navigation.
uint64_t contentWindowId = 0;
TimeStamp navigationStartTimeStamp;
if (browserChild) {
MOZ_ASSERT(browserChild->WebNavigation());
if (RefPtr<Document> document = browserChild->GetTopLevelDocument()) {
contentWindowId = document->InnerWindowID();
nsDOMNavigationTiming* navigationTiming = document->GetNavigationTiming();
if (navigationTiming) {
navigationStartTimeStamp =
navigationTiming->GetNavigationStartTimeStamp();
}
mTopLevelOuterContentWindowId = document->OuterWindowID();
}
}
SetTopLevelContentWindowId(contentWindowId);
HttpChannelOpenArgs openArgs;
// No access to HttpChannelOpenArgs members, but they each have a
// function with the struct name that returns a ref.
SerializeURI(mURI, openArgs.uri());
SerializeURI(mOriginalURI, openArgs.original());
SerializeURI(mDocumentURI, openArgs.doc());
SerializeURI(mAPIRedirectToURI, openArgs.apiRedirectTo());
openArgs.loadFlags() = mLoadFlags;
openArgs.requestHeaders() = mClientSetRequestHeaders;
mRequestHead.Method(openArgs.requestMethod());
openArgs.preferredAlternativeTypes() = mPreferredCachedAltDataTypes;
openArgs.referrerInfo() = mReferrerInfo;
AutoIPCStream autoStream(openArgs.uploadStream());
if (mUploadStream) {
autoStream.Serialize(mUploadStream, ContentChild::GetSingleton());
autoStream.TakeOptionalValue();
}
if (mResponseHead) {
openArgs.synthesizedResponseHead() = Some(*mResponseHead);
openArgs.suspendAfterSynthesizeResponse() =
mSuspendParentAfterSynthesizeResponse;
} else {
openArgs.suspendAfterSynthesizeResponse() = false;
}
nsCOMPtr<nsISerializable> secInfoSer = do_QueryInterface(mSecurityInfo);
if (secInfoSer) {
NS_SerializeToString(secInfoSer,
openArgs.synthesizedSecurityInfoSerialization());
}
Maybe<CorsPreflightArgs> optionalCorsPreflightArgs;
GetClientSetCorsPreflightParameters(optionalCorsPreflightArgs);
// NB: This call forces us to cache mTopWindowURI if we haven't already.
nsCOMPtr<nsIURI> uri;
GetTopWindowURI(mURI, getter_AddRefs(uri));
SerializeURI(mTopWindowURI, openArgs.topWindowURI());
openArgs.preflightArgs() = optionalCorsPreflightArgs;
openArgs.uploadStreamHasHeaders() = mUploadStreamHasHeaders;
openArgs.priority() = mPriority;
openArgs.classOfService() = mClassOfService;
openArgs.redirectionLimit() = mRedirectionLimit;
openArgs.allowSTS() = mAllowSTS;
openArgs.thirdPartyFlags() = mThirdPartyFlags;
openArgs.resumeAt() = mSendResumeAt;
openArgs.startPos() = mStartPos;
openArgs.entityID() = mEntityID;
openArgs.chooseApplicationCache() = mChooseApplicationCache;
openArgs.appCacheClientID() = appCacheClientId;
openArgs.allowSpdy() = mAllowSpdy;
openArgs.allowAltSvc() = mAllowAltSvc;
openArgs.beConservative() = mBeConservative;
openArgs.tlsFlags() = mTlsFlags;
openArgs.initialRwin() = mInitialRwin;
openArgs.cacheKey() = mCacheKey;
openArgs.blockAuthPrompt() = mBlockAuthPrompt;
openArgs.allowStaleCacheContent() = mAllowStaleCacheContent;
openArgs.contentTypeHint() = mContentTypeHint;
rv = mozilla::ipc::LoadInfoToLoadInfoArgs(mLoadInfo, &openArgs.loadInfo());
NS_ENSURE_SUCCESS(rv, rv);
EnsureRequestContextID();
openArgs.requestContextID() = mRequestContextID;
openArgs.corsMode() = mCorsMode;
openArgs.redirectMode() = mRedirectMode;
openArgs.channelId() = mChannelId;
openArgs.integrityMetadata() = mIntegrityMetadata;
openArgs.contentWindowId() = contentWindowId;
openArgs.topLevelOuterContentWindowId() = mTopLevelOuterContentWindowId;
LOG(("HttpChannelChild::ContinueAsyncOpen this=%p gid=%" PRIu64
" topwinid=%" PRIx64,
this, mChannelId, mTopLevelOuterContentWindowId));
if (browserChild && !browserChild->IPCOpen()) {
return NS_ERROR_FAILURE;
}
ContentChild* cc = static_cast<ContentChild*>(gNeckoChild->Manager());
if (cc->IsShuttingDown()) {
return NS_ERROR_FAILURE;
}
openArgs.launchServiceWorkerStart() = mLaunchServiceWorkerStart;
openArgs.launchServiceWorkerEnd() = mLaunchServiceWorkerEnd;
openArgs.dispatchFetchEventStart() = mDispatchFetchEventStart;
openArgs.dispatchFetchEventEnd() = mDispatchFetchEventEnd;
openArgs.handleFetchEventStart() = mHandleFetchEventStart;
openArgs.handleFetchEventEnd() = mHandleFetchEventEnd;
openArgs.forceMainDocumentChannel() = mForceMainDocumentChannel;
openArgs.navigationStartTimeStamp() = navigationStartTimeStamp;
// This must happen before the constructor message is sent. Otherwise messages
// from the parent could arrive quickly and be delivered to the wrong event
// target.
SetEventTarget();
// The socket transport in the chrome process now holds a logical ref to us
// until OnStopRequest, or we do a redirect, or we hit an IPDL error.
AddRef();
PBrowserOrId browser = cc->GetBrowserOrId(browserChild);
if (!gNeckoChild->SendPHttpChannelConstructor(
this, browser, IPC::SerializedLoadContext(this), openArgs)) {
return NS_ERROR_FAILURE;
}
{
MutexAutoLock lock(mBgChildMutex);
MOZ_RELEASE_ASSERT(gSocketTransportService);
// Service worker might use the same HttpChannelChild to do async open
// twice. Need to disconnect with previous background channel before
// creating the new one, to prevent receiving further notification
// from it.
if (mBgChild) {
RefPtr<HttpBackgroundChannelChild> prevBgChild = mBgChild.forget();
gSocketTransportService->Dispatch(
NewRunnableMethod("HttpBackgroundChannelChild::OnChannelClosed",
prevBgChild,
&HttpBackgroundChannelChild::OnChannelClosed),
NS_DISPATCH_NORMAL);
}
MOZ_ASSERT(!mBgInitFailCallback);
mBgInitFailCallback = NewRunnableMethod<nsresult>(
"HttpChannelChild::FailedAsyncOpen", this,
&HttpChannelChild::FailedAsyncOpen, NS_ERROR_FAILURE);
RefPtr<HttpBackgroundChannelChild> bgChild =
new HttpBackgroundChannelChild();
RefPtr<HttpChannelChild> self = this;
nsresult rv = gSocketTransportService->Dispatch(
NewRunnableMethod<RefPtr<HttpChannelChild>>(
"HttpBackgroundChannelChild::Init", bgChild,
&HttpBackgroundChannelChild::Init, self),
NS_DISPATCH_NORMAL);
if (NS_WARN_IF(NS_FAILED(rv))) {
return rv;
}
mBgChild = bgChild.forget();
}
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIHttpChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::SetRequestHeader(const nsACString& aHeader,
const nsACString& aValue, bool aMerge) {
LOG(("HttpChannelChild::SetRequestHeader [this=%p]\n", this));
nsresult rv = HttpBaseChannel::SetRequestHeader(aHeader, aValue, aMerge);
if (NS_FAILED(rv)) return rv;
RequestHeaderTuple* tuple = mClientSetRequestHeaders.AppendElement();
if (!tuple) return NS_ERROR_OUT_OF_MEMORY;
tuple->mHeader = aHeader;
tuple->mValue = aValue;
tuple->mMerge = aMerge;
tuple->mEmpty = false;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetEmptyRequestHeader(const nsACString& aHeader) {
LOG(("HttpChannelChild::SetEmptyRequestHeader [this=%p]\n", this));
nsresult rv = HttpBaseChannel::SetEmptyRequestHeader(aHeader);
if (NS_FAILED(rv)) return rv;
RequestHeaderTuple* tuple = mClientSetRequestHeaders.AppendElement();
if (!tuple) return NS_ERROR_OUT_OF_MEMORY;
tuple->mHeader = aHeader;
tuple->mMerge = false;
tuple->mEmpty = true;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::RedirectTo(nsIURI* newURI) {
// disabled until/unless addons run in child or something else needs this
return NS_ERROR_NOT_IMPLEMENTED;
}
NS_IMETHODIMP
HttpChannelChild::UpgradeToSecure() {
// disabled until/unless addons run in child or something else needs this
return NS_ERROR_NOT_IMPLEMENTED;
}
NS_IMETHODIMP
HttpChannelChild::GetProtocolVersion(nsACString& aProtocolVersion) {
aProtocolVersion = mProtocolVersion;
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIHttpChannelInternal
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::SetupFallbackChannel(const char* aFallbackKey) {
DROP_DEAD();
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsICacheInfoChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::GetCacheTokenFetchCount(int32_t* _retval) {
NS_ENSURE_ARG_POINTER(_retval);
MOZ_ASSERT(NS_IsMainThread());
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->GetCacheTokenFetchCount(_retval);
}
if (!mCacheEntryAvailable && !mAltDataCacheEntryAvailable) {
return NS_ERROR_NOT_AVAILABLE;
}
*_retval = mCacheFetchCount;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetCacheTokenExpirationTime(uint32_t* _retval) {
NS_ENSURE_ARG_POINTER(_retval);
MOZ_ASSERT(NS_IsMainThread());
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->GetCacheTokenExpirationTime(_retval);
}
if (!mCacheEntryAvailable) return NS_ERROR_NOT_AVAILABLE;
*_retval = mCacheExpirationTime;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetCacheTokenCachedCharset(nsACString& _retval) {
MOZ_ASSERT(NS_IsMainThread());
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->GetCacheTokenCachedCharset(_retval);
}
if (!mCacheEntryAvailable) return NS_ERROR_NOT_AVAILABLE;
_retval = mCachedCharset;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetCacheTokenCachedCharset(const nsACString& aCharset) {
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->SetCacheTokenCachedCharset(aCharset);
}
if (!mCacheEntryAvailable || !RemoteChannelExists())
return NS_ERROR_NOT_AVAILABLE;
mCachedCharset = aCharset;
if (!SendSetCacheTokenCachedCharset(PromiseFlatCString(aCharset))) {
return NS_ERROR_FAILURE;
}
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::IsFromCache(bool* value) {
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->IsFromCache(value);
}
if (!mIsPending) return NS_ERROR_NOT_AVAILABLE;
*value = mIsFromCache;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetCacheEntryId(uint64_t* aCacheEntryId) {
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->GetCacheEntryId(aCacheEntryId);
}
bool fromCache = false;
if (NS_FAILED(IsFromCache(&fromCache)) || !fromCache ||
!mCacheEntryAvailable) {
return NS_ERROR_NOT_AVAILABLE;
}
*aCacheEntryId = mCacheEntryId;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::IsRacing(bool* aIsRacing) {
if (!mAfterOnStartRequestBegun) {
return NS_ERROR_NOT_AVAILABLE;
}
*aIsRacing = mIsRacing;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetCacheKey(uint32_t* cacheKey) {
MOZ_ASSERT(NS_IsMainThread());
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->GetCacheKey(cacheKey);
}
*cacheKey = mCacheKey;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetCacheKey(uint32_t cacheKey) {
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->SetCacheKey(cacheKey);
}
ENSURE_CALLED_BEFORE_ASYNC_OPEN();
mCacheKey = cacheKey;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetAllowStaleCacheContent(bool aAllowStaleCacheContent) {
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->SetAllowStaleCacheContent(
aAllowStaleCacheContent);
}
mAllowStaleCacheContent = aAllowStaleCacheContent;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetAllowStaleCacheContent(bool* aAllowStaleCacheContent) {
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->GetAllowStaleCacheContent(
aAllowStaleCacheContent);
}
NS_ENSURE_ARG(aAllowStaleCacheContent);
*aAllowStaleCacheContent = mAllowStaleCacheContent;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::PreferAlternativeDataType(const nsACString& aType,
const nsACString& aContentType,
bool aDeliverAltData) {
ENSURE_CALLED_BEFORE_ASYNC_OPEN();
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->PreferAlternativeDataType(aType, aContentType,
aDeliverAltData);
}
mPreferredCachedAltDataTypes.AppendElement(PreferredAlternativeDataTypeParams(
nsCString(aType), nsCString(aContentType), aDeliverAltData));
return NS_OK;
}
const nsTArray<PreferredAlternativeDataTypeParams>&
HttpChannelChild::PreferredAlternativeDataTypes() {
return mPreferredCachedAltDataTypes;
}
NS_IMETHODIMP
HttpChannelChild::GetAlternativeDataType(nsACString& aType) {
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->GetAlternativeDataType(aType);
}
// Must be called during or after OnStartRequest
if (!mAfterOnStartRequestBegun) {
return NS_ERROR_NOT_AVAILABLE;
}
aType = mAvailableCachedAltDataType;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::OpenAlternativeOutputStream(const nsACString& aType,
int64_t aPredictedSize,
nsIAsyncOutputStream** _retval) {
MOZ_ASSERT(NS_IsMainThread(), "Main thread only");
if (mSynthesizedCacheInfo) {
return mSynthesizedCacheInfo->OpenAlternativeOutputStream(
aType, aPredictedSize, _retval);
}
if (!CanSend()) {
return NS_ERROR_NOT_AVAILABLE;
}
if (static_cast<ContentChild*>(gNeckoChild->Manager())->IsShuttingDown()) {
return NS_ERROR_NOT_AVAILABLE;
}
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
RefPtr<AltDataOutputStreamChild> stream = new AltDataOutputStreamChild();
stream->AddIPDLReference();
gNeckoChild->SetEventTargetForActor(stream, neckoTarget);
if (!gNeckoChild->SendPAltDataOutputStreamConstructor(
stream, nsCString(aType), aPredictedSize, this)) {
return NS_ERROR_FAILURE;
}
stream.forget(_retval);
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetOriginalInputStream(nsIInputStreamReceiver* aReceiver) {
if (aReceiver == nullptr) {
return NS_ERROR_INVALID_ARG;
}
if (!CanSend()) {
return NS_ERROR_NOT_AVAILABLE;
}
mOriginalInputStreamReceiver = aReceiver;
Unused << SendOpenOriginalCacheInputStream();
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetAltDataInputStream(const nsACString& aType,
nsIInputStreamReceiver* aReceiver) {
if (aReceiver == nullptr) {
return NS_ERROR_INVALID_ARG;
}
if (!CanSend()) {
return NS_ERROR_NOT_AVAILABLE;
}
mAltDataInputStreamReceiver = aReceiver;
Unused << SendOpenAltDataCacheInputStream(nsCString(aType));
return NS_OK;
}
mozilla::ipc::IPCResult HttpChannelChild::RecvOriginalCacheInputStreamAvailable(
const Maybe<IPCStream>& aStream) {
nsCOMPtr<nsIInputStream> stream = DeserializeIPCStream(aStream);
nsCOMPtr<nsIInputStreamReceiver> receiver;
receiver.swap(mOriginalInputStreamReceiver);
if (receiver) {
receiver->OnInputStreamReady(stream);
}
return IPC_OK();
}
mozilla::ipc::IPCResult HttpChannelChild::RecvAltDataCacheInputStreamAvailable(
const Maybe<IPCStream>& aStream) {
nsCOMPtr<nsIInputStream> stream = DeserializeIPCStream(aStream);
nsCOMPtr<nsIInputStreamReceiver> receiver;
receiver.swap(mAltDataInputStreamReceiver);
if (receiver) {
receiver->OnInputStreamReady(stream);
}
return IPC_OK();
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIResumableChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::ResumeAt(uint64_t startPos, const nsACString& entityID) {
LOG(("HttpChannelChild::ResumeAt [this=%p]\n", this));
ENSURE_CALLED_BEFORE_CONNECT();
mStartPos = startPos;
mEntityID = entityID;
mSendResumeAt = true;
return NS_OK;
}
// GetEntityID is shared in HttpBaseChannel
//-----------------------------------------------------------------------------
// HttpChannelChild::nsISupportsPriority
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::SetPriority(int32_t aPriority) {
LOG(("HttpChannelChild::SetPriority %p p=%d", this, aPriority));
int16_t newValue = clamped<int32_t>(aPriority, INT16_MIN, INT16_MAX);
if (mPriority == newValue) return NS_OK;
mPriority = newValue;
if (RemoteChannelExists()) SendSetPriority(mPriority);
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIClassOfService
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::SetClassFlags(uint32_t inFlags) {
if (mClassOfService == inFlags) {
return NS_OK;
}
mClassOfService = inFlags;
LOG(("HttpChannelChild %p ClassOfService=%u", this, mClassOfService));
if (RemoteChannelExists()) {
SendSetClassOfService(mClassOfService);
}
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::AddClassFlags(uint32_t inFlags) {
mClassOfService |= inFlags;
LOG(("HttpChannelChild %p ClassOfService=%u", this, mClassOfService));
if (RemoteChannelExists()) {
SendSetClassOfService(mClassOfService);
}
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::ClearClassFlags(uint32_t inFlags) {
mClassOfService &= ~inFlags;
LOG(("HttpChannelChild %p ClassOfService=%u", this, mClassOfService));
if (RemoteChannelExists()) {
SendSetClassOfService(mClassOfService);
}
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIProxiedChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::GetProxyInfo(nsIProxyInfo** aProxyInfo) { DROP_DEAD(); }
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIApplicationCacheContainer
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::GetApplicationCache(nsIApplicationCache** aApplicationCache) {
NS_IF_ADDREF(*aApplicationCache = mApplicationCache);
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetApplicationCache(nsIApplicationCache* aApplicationCache) {
NS_ENSURE_TRUE(!mWasOpened, NS_ERROR_ALREADY_OPENED);
mApplicationCache = aApplicationCache;
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIApplicationCacheChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::GetApplicationCacheForWrite(
nsIApplicationCache** aApplicationCache) {
*aApplicationCache = nullptr;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetApplicationCacheForWrite(
nsIApplicationCache* aApplicationCache) {
NS_ENSURE_TRUE(!mWasOpened, NS_ERROR_ALREADY_OPENED);
// Child channels are not intended to be used for cache writes
return NS_ERROR_NOT_IMPLEMENTED;
}
NS_IMETHODIMP
HttpChannelChild::GetLoadedFromApplicationCache(
bool* aLoadedFromApplicationCache) {
*aLoadedFromApplicationCache = mLoadedFromApplicationCache;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetInheritApplicationCache(bool* aInherit) {
*aInherit = mInheritApplicationCache;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetInheritApplicationCache(bool aInherit) {
mInheritApplicationCache = aInherit;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetChooseApplicationCache(bool* aChoose) {
*aChoose = mChooseApplicationCache;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::SetChooseApplicationCache(bool aChoose) {
mChooseApplicationCache = aChoose;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::MarkOfflineCacheEntryAsForeign() {
SendMarkOfflineCacheEntryAsForeign();
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIHttpChannelChild
//-----------------------------------------------------------------------------
NS_IMETHODIMP HttpChannelChild::AddCookiesToRequest() {
HttpBaseChannel::AddCookiesToRequest();
return NS_OK;
}
NS_IMETHODIMP HttpChannelChild::GetClientSetRequestHeaders(
RequestHeaderTuples** aRequestHeaders) {
*aRequestHeaders = &mClientSetRequestHeaders;
return NS_OK;
}
void HttpChannelChild::GetClientSetCorsPreflightParameters(
Maybe<CorsPreflightArgs>& aArgs) {
if (mRequireCORSPreflight) {
CorsPreflightArgs args;
args.unsafeHeaders() = mUnsafeHeaders;
aArgs.emplace(args);
} else {
aArgs = Nothing();
}
}
NS_IMETHODIMP
HttpChannelChild::RemoveCorsPreflightCacheEntry(nsIURI* aURI,
nsIPrincipal* aPrincipal) {
URIParams uri;
SerializeURI(aURI, uri);
PrincipalInfo principalInfo;
nsresult rv = PrincipalToPrincipalInfo(aPrincipal, &principalInfo);
if (NS_WARN_IF(NS_FAILED(rv))) {
return rv;
}
bool result = false;
// Be careful to not attempt to send a message to the parent after the
// actor has been destroyed.
if (CanSend()) {
result = SendRemoveCorsPreflightCacheEntry(uri, principalInfo);
}
return result ? NS_OK : NS_ERROR_FAILURE;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIDivertableChannel
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::DivertToParent(ChannelDiverterChild** aChild) {
LOG(("HttpChannelChild::DivertToParent [this=%p]\n", this));
MOZ_RELEASE_ASSERT(aChild);
MOZ_RELEASE_ASSERT(gNeckoChild);
MOZ_RELEASE_ASSERT(!mDivertingToParent);
MOZ_ASSERT(NS_IsMainThread());
nsresult rv = NS_OK;
// If the channel was intercepted, then we likely do not have an IPC actor
// yet. We need one, though, in order to have a parent side to divert to.
// Therefore, create the actor just in time for us to suspend and divert it.
if (mSynthesizedResponse && !RemoteChannelExists()) {
mSuspendParentAfterSynthesizeResponse = true;
rv = ContinueAsyncOpen();
NS_ENSURE_SUCCESS(rv, rv);
}
// We must fail DivertToParent() if there's no parent end of the channel (and
// won't be!) due to early failure.
if (NS_FAILED(mStatus) && !RemoteChannelExists()) {
return mStatus;
}
// Once this is set, it should not be unset before the child is taken down.
mDivertingToParent = true;
rv = Suspend();
if (NS_WARN_IF(NS_FAILED(rv))) {
return rv;
}
if (static_cast<ContentChild*>(gNeckoChild->Manager())->IsShuttingDown()) {
return NS_ERROR_FAILURE;
}
HttpChannelDiverterArgs args;
args.mChannelChild() = this;
args.mApplyConversion() = mApplyConversion;
PChannelDiverterChild* diverter =
gNeckoChild->SendPChannelDiverterConstructor(args);
MOZ_RELEASE_ASSERT(diverter);
*aChild = static_cast<ChannelDiverterChild*>(diverter);
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::UnknownDecoderInvolvedKeepData() {
LOG(("HttpChannelChild::UnknownDecoderInvolvedKeepData [this=%p]", this));
MOZ_ASSERT(NS_IsMainThread());
mUnknownDecoderInvolved = true;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::UnknownDecoderInvolvedOnStartRequestCalled() {
LOG(
("HttpChannelChild::UnknownDecoderInvolvedOnStartRequestCalled "
"[this=%p, mDivertingToParent=%d]",
this, static_cast<bool>(mDivertingToParent)));
MOZ_ASSERT(NS_IsMainThread());
mUnknownDecoderInvolved = false;
nsresult rv = NS_OK;
if (mDivertingToParent) {
rv = mEventQ->PrependEvents(mUnknownDecoderEventQ);
}
mUnknownDecoderEventQ.Clear();
return rv;
}
NS_IMETHODIMP
HttpChannelChild::GetDivertingToParent(bool* aDiverting) {
NS_ENSURE_ARG_POINTER(aDiverting);
*aDiverting = mDivertingToParent;
return NS_OK;
}
//-----------------------------------------------------------------------------
// HttpChannelChild::nsIThreadRetargetableRequest
//-----------------------------------------------------------------------------
NS_IMETHODIMP
HttpChannelChild::RetargetDeliveryTo(nsIEventTarget* aNewTarget) {
LOG(("HttpChannelChild::RetargetDeliveryTo [this=%p, aNewTarget=%p]", this,
aNewTarget));
MOZ_ASSERT(NS_IsMainThread(), "Should be called on main thread only");
MOZ_ASSERT(!mODATarget);
MOZ_ASSERT(aNewTarget);
NS_ENSURE_ARG(aNewTarget);
if (aNewTarget->IsOnCurrentThread()) {
NS_WARNING("Retargeting delivery to same thread");
mOMTResult = LABELS_HTTP_CHILD_OMT_STATS::successMainThread;
return NS_OK;
}
// Ensure that |mListener| and any subsequent listeners can be retargeted
// to another thread.
nsresult rv = NS_OK;
nsCOMPtr<nsIThreadRetargetableStreamListener> retargetableListener =
do_QueryInterface(mListener, &rv);
if (!retargetableListener || NS_FAILED(rv)) {
NS_WARNING("Listener is not retargetable");
mOMTResult = LABELS_HTTP_CHILD_OMT_STATS::failListener;
return NS_ERROR_NO_INTERFACE;
}
rv = retargetableListener->CheckListenerChain();
if (NS_FAILED(rv)) {
NS_WARNING("Subsequent listeners are not retargetable");
mOMTResult = LABELS_HTTP_CHILD_OMT_STATS::failListenerChain;
return rv;
}
{
MutexAutoLock lock(mEventTargetMutex);
mODATarget = aNewTarget;
}
mOMTResult = LABELS_HTTP_CHILD_OMT_STATS::success;
return NS_OK;
}
NS_IMETHODIMP
HttpChannelChild::GetDeliveryTarget(nsIEventTarget** aEventTarget) {
MutexAutoLock lock(mEventTargetMutex);
nsCOMPtr<nsIEventTarget> target = mODATarget;
if (!mODATarget) {
target = GetCurrentThreadEventTarget();
}
target.forget(aEventTarget);
return NS_OK;
}
void HttpChannelChild::ResetInterception() {
NS_ENSURE_TRUE_VOID(gNeckoChild != nullptr);
if (mInterceptListener) {
mInterceptListener->Cleanup();
}
mInterceptListener = nullptr;
// The chance to intercept any further requests associated with this channel
// (such as redirects) has passed.
if (mRedirectMode != nsIHttpChannelInternal::REDIRECT_MODE_MANUAL) {
mLoadFlags |= LOAD_BYPASS_SERVICE_WORKER;
}
// If the channel has already been aborted or canceled, just stop.
if (NS_FAILED(mStatus)) {
return;
}
// Continue with the original cross-process request
nsresult rv = ContinueAsyncOpen();
if (NS_WARN_IF(NS_FAILED(rv))) {
Unused << Cancel(rv);
}
}
void HttpChannelChild::TrySendDeletingChannel() {
AUTO_PROFILER_LABEL("HttpChannelChild::TrySendDeletingChannel", NETWORK);
if (!mDeletingChannelSent.compareExchange(false, true)) {
// SendDeletingChannel is already sent.
return;
}
if (NS_IsMainThread()) {
if (NS_WARN_IF(!CanSend())) {
// IPC actor is detroyed already, do not send more messages.
return;
}
Unused << PHttpChannelChild::SendDeletingChannel();
return;
}
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
DebugOnly<nsresult> rv = neckoTarget->Dispatch(
NewNonOwningRunnableMethod(
"net::HttpChannelChild::TrySendDeletingChannel", this,
&HttpChannelChild::TrySendDeletingChannel),
NS_DISPATCH_NORMAL);
MOZ_ASSERT(NS_SUCCEEDED(rv));
}
void HttpChannelChild::OnCopyComplete(nsresult aStatus) {
nsCOMPtr<nsIRunnable> runnable = NewRunnableMethod<nsresult>(
"net::HttpBaseChannel::EnsureUploadStreamIsCloneableComplete", this,
&HttpChannelChild::EnsureUploadStreamIsCloneableComplete, aStatus);
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
Unused << neckoTarget->Dispatch(runnable, NS_DISPATCH_NORMAL);
}
nsresult HttpChannelChild::AsyncCallImpl(
void (HttpChannelChild::*funcPtr)(),
nsRunnableMethod<HttpChannelChild>** retval) {
nsresult rv;
RefPtr<nsRunnableMethod<HttpChannelChild>> event =
NewRunnableMethod("net::HttpChannelChild::AsyncCall", this, funcPtr);
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
rv = neckoTarget->Dispatch(event, NS_DISPATCH_NORMAL);
if (NS_SUCCEEDED(rv) && retval) {
*retval = event;
}
return rv;
}
nsresult HttpChannelChild::SetReferrerHeader(const nsACString& aReferrer) {
// Normally this would be ENSURE_CALLED_BEFORE_CONNECT, but since the
// "connect" is done in the main process, and mRequestObserversCalled is never
// set in the ChannelChild, before connect basically means before asyncOpen.
ENSURE_CALLED_BEFORE_ASYNC_OPEN();
// remove old referrer if any, loop backwards
for (int i = mClientSetRequestHeaders.Length() - 1; i >= 0; --i) {
if (NS_LITERAL_CSTRING("Referer").Equals(
mClientSetRequestHeaders[i].mHeader)) {
mClientSetRequestHeaders.RemoveElementAt(i);
}
}
return HttpBaseChannel::SetReferrerHeader(aReferrer);
}
class CancelEvent final : public NeckoTargetChannelEvent<HttpChannelChild> {
public:
CancelEvent(HttpChannelChild* aChild, nsresult aRv)
: NeckoTargetChannelEvent<HttpChannelChild>(aChild), mRv(aRv) {
MOZ_ASSERT(!NS_IsMainThread());
MOZ_ASSERT(aChild);
}
void Run() override {
MOZ_ASSERT(NS_IsMainThread());
mChild->Cancel(mRv);
}
private:
const nsresult mRv;
};
void HttpChannelChild::CancelOnMainThread(nsresult aRv) {
LOG(("HttpChannelChild::CancelOnMainThread [this=%p]", this));
if (NS_IsMainThread()) {
Cancel(aRv);
return;
}
mEventQ->Suspend();
// Cancel is expected to preempt any other channel events, thus we put this
// event in the front of mEventQ to make sure nsIStreamListener not receiving
// any ODA/OnStopRequest callbacks.
UniquePtr<ChannelEvent> cancelEvent = MakeUnique<CancelEvent>(this, aRv);
mEventQ->PrependEvent(cancelEvent);
mEventQ->Resume();
}
void HttpChannelChild::OverrideWithSynthesizedResponse(
nsAutoPtr<nsHttpResponseHead>& aResponseHead,
nsIInputStream* aSynthesizedInput,
nsIInterceptedBodyCallback* aSynthesizedCallback,
InterceptStreamListener* aStreamListener,
nsICacheInfoChannel* aCacheInfoChannel) {
MOZ_ASSERT(NS_IsMainThread());
nsresult rv = NS_OK;
auto autoCleanup = MakeScopeExit([&] {
// Auto-cancel on failure. Do this first to get mStatus set, if necessary.
if (NS_FAILED(rv)) {
Cancel(rv);
}
// If we early exit before taking ownership of the body, then automatically
// invoke the callback. This could be due to an error or because we're not
// going to consume it due to a redirect, etc.
if (aSynthesizedCallback) {
aSynthesizedCallback->BodyComplete(mStatus);
}
});
if (NS_FAILED(mStatus)) {
return;
}
mInterceptListener = aStreamListener;
// Intercepted responses should already be decoded. If its a redirect,
// however, we want to respect the encoding of the final result instead.
if (!nsHttpChannel::WillRedirect(aResponseHead)) {
SetApplyConversion(false);
}
mResponseHead = aResponseHead;
mSynthesizedResponse = true;
mSynthesizedInput = aSynthesizedInput;
if (!mSynthesizedInput) {
rv = NS_NewCStringInputStream(getter_AddRefs(mSynthesizedInput),
EmptyCString());
NS_ENSURE_SUCCESS_VOID(rv);
}
if (nsHttpChannel::WillRedirect(mResponseHead)) {
// Normally we handle redirect limits in the parent process. The way
// e10s synthesized redirects work, however, the parent process does not
// get an accurate redirect count. Therefore we need to enforce it here.
rv = CheckRedirectLimit(nsIChannelEventSink::REDIRECT_TEMPORARY);
if (NS_WARN_IF(NS_FAILED(rv))) {
Cancel(rv);
return;
}
mShouldInterceptSubsequentRedirect = true;
if (mInterceptListener) {
mInterceptListener->Cleanup();
mInterceptListener = nullptr;
}
// Continue with the original cross-process request
rv = ContinueAsyncOpen();
return;
}
// For progress we trust the content-length for the "maximum" size.
// We can't determine the full size from the stream itself since we
// only receive the data incrementally. We can't trust Available()
// here.
// TODO: We could implement an nsIFixedLengthInputStream interface and
// QI to it here. This would let us determine the total length
// for streams that support it. See bug 1388774.
rv = GetContentLength(&mSynthesizedStreamLength);
if (NS_FAILED(rv)) {
mSynthesizedStreamLength = -1;
}
nsCOMPtr<nsIEventTarget> neckoTarget = GetNeckoTarget();
MOZ_ASSERT(neckoTarget);
rv = nsInputStreamPump::Create(getter_AddRefs(mSynthesizedResponsePump),
mSynthesizedInput, 0, 0, true, neckoTarget);
NS_ENSURE_SUCCESS_VOID(rv);
mSynthesizedCacheInfo = aCacheInfoChannel;
rv = mSynthesizedResponsePump->AsyncRead(aStreamListener, nullptr);
NS_ENSURE_SUCCESS_VOID(rv);
// The pump is started, so take ownership of the body callback. We
// clear the argument to avoid auto-completing it via the ScopeExit
// lambda.
mSynthesizedCallback = aSynthesizedCallback;
aSynthesizedCallback = nullptr;
// if this channel has been suspended previously, the pump needs to be
// correspondingly suspended now that it exists.
for (uint32_t i = 0; i < mSuspendCount; i++) {
rv = mSynthesizedResponsePump->Suspend();
NS_ENSURE_SUCCESS_VOID(rv);
}
MOZ_DIAGNOSTIC_ASSERT(!mCanceled);
}
NS_IMETHODIMP
HttpChannelChild::ForceIntercepted(bool aPostRedirectChannelShouldIntercept,
bool aPostRedirectChannelShouldUpgrade) {
MOZ_ASSERT(NS_IsMainThread());
mShouldParentIntercept = true;
mPostRedirectChannelShouldIntercept = aPostRedirectChannelShouldIntercept;
mPostRedirectChannelShouldUpgrade = aPostRedirectChannelShouldUpgrade;
return NS_OK;
}
void HttpChannelChild::ForceIntercepted(
nsIInputStream* aSynthesizedInput,
nsIInterceptedBodyCallback* aSynthesizedCallback,
nsICacheInfoChannel* aCacheInfo) {
MOZ_ASSERT(NS_IsMainThread());
mSynthesizedInput = aSynthesizedInput;
mSynthesizedCallback = aSynthesizedCallback;
mSynthesizedCacheInfo = aCacheInfo;
mSynthesizedResponse = true;
mRedirectingForSubsequentSynthesizedResponse = true;
}
mozilla::ipc::IPCResult HttpChannelChild::RecvIssueDeprecationWarning(
const uint32_t& warning, const bool& asError) {
nsCOMPtr<nsIDeprecationWarner> warner;
GetCallback(warner);
if (warner) {
warner->IssueWarning(warning, asError);
}
return IPC_OK();
}
bool HttpChannelChild::ShouldInterceptURI(nsIURI* aURI, bool& aShouldUpgrade) {
bool isHttps = false;
nsresult rv = aURI->SchemeIs("https", &isHttps);
NS_ENSURE_SUCCESS(rv, false);
nsCOMPtr<nsIPrincipal> resultPrincipal;
if (!isHttps && mLoadInfo) {
nsContentUtils::GetSecurityManager()->GetChannelResultPrincipal(
this, getter_AddRefs(resultPrincipal));
}
OriginAttributes originAttributes;
NS_ENSURE_TRUE(NS_GetOriginAttributes(this, originAttributes), false);
bool notused = false;
rv = NS_ShouldSecureUpgrade(aURI, mLoadInfo, resultPrincipal,
mPrivateBrowsing, mAllowSTS, originAttributes,
aShouldUpgrade, nullptr, notused);
NS_ENSURE_SUCCESS(rv, false);
nsCOMPtr<nsIURI> upgradedURI;
if (aShouldUpgrade) {
rv = NS_GetSecureUpgradedURI(aURI, getter_AddRefs(upgradedURI));
NS_ENSURE_SUCCESS(rv, false);
}
return ShouldIntercept(upgradedURI ? upgradedURI.get() : aURI);
}
mozilla::ipc::IPCResult HttpChannelChild::RecvSetPriority(
const int16_t& aPriority) {
mPriority = aPriority;
return IPC_OK();
}
mozilla::ipc::IPCResult HttpChannelChild::RecvAttachStreamFilter(
Endpoint<extensions::PStreamFilterParent>&& aEndpoint) {
extensions::StreamFilterParent::Attach(this, std::move(aEndpoint));
return IPC_OK();
}
mozilla::ipc::IPCResult HttpChannelChild::RecvCancelDiversion() {
MOZ_ASSERT(NS_IsMainThread());
// This method is a very special case for cancellation of a diverted
// intercepted channel. Normally we would go through the mEventQ in order to
// serialize event execution in the face of sync XHR and now background
// channels. However, similar to how CancelOnMainThread describes, Cancel()
// pre-empts everything. (And frankly, we want this stack frame on the stack
// if a crash happens.)
Cancel(NS_ERROR_ABORT);
return IPC_OK();
}
void HttpChannelChild::ActorDestroy(ActorDestroyReason aWhy) {
MOZ_ASSERT(NS_IsMainThread());
// OnStartRequest might be dropped if IPDL is destroyed abnormally
// and BackgroundChild might have pending IPC messages.
// Clean up BackgroundChild at this time to prevent memleak.
if (aWhy != Deletion) {
// Make sure all the messages are processed.
AutoEventEnqueuer ensureSerialDispatch(mEventQ);
mStatus = NS_ERROR_DOCSHELL_DYING;
HandleAsyncAbort();
// Cleanup the background channel before we resume the eventQ so we don't
// get any other events.
CleanupBackgroundChannel();
mIPCActorDeleted = true;
mCanceled = true;
}
}
mozilla::ipc::IPCResult HttpChannelChild::RecvLogBlockedCORSRequest(
const nsString& aMessage, const nsCString& aCategory) {
Unused << LogBlockedCORSRequest(aMessage, aCategory);
return IPC_OK();
}
NS_IMETHODIMP
HttpChannelChild::LogBlockedCORSRequest(const nsAString& aMessage,
const nsACString& aCategory) {
if (mLoadInfo) {
uint64_t innerWindowID = mLoadInfo->GetInnerWindowID();
bool privateBrowsing =
!!mLoadInfo->GetOriginAttributes().mPrivateBrowsingId;
bool fromChromeContext =
nsContentUtils::IsSystemPrincipal(mLoadInfo->TriggeringPrincipal());
nsCORSListenerProxy::LogBlockedCORSRequest(
innerWindowID, privateBrowsing, fromChromeContext, aMessage, aCategory);
}
return NS_OK;
}
mozilla::ipc::IPCResult HttpChannelChild::RecvLogMimeTypeMismatch(
const nsCString& aMessageName, const bool& aWarning, const nsString& aURL,
const nsString& aContentType) {
Unused << LogMimeTypeMismatch(aMessageName, aWarning, aURL, aContentType);
return IPC_OK();
}
NS_IMETHODIMP
HttpChannelChild::LogMimeTypeMismatch(const nsACString& aMessageName,
bool aWarning, const nsAString& aURL,
const nsAString& aContentType) {
RefPtr<Document> doc;
if (mLoadInfo) {
mLoadInfo->GetLoadingDocument(getter_AddRefs(doc));
}
nsAutoString url(aURL);
nsAutoString contentType(aContentType);
const char16_t* params[] = {url.get(), contentType.get()};
nsContentUtils::ReportToConsole(
aWarning ? nsIScriptError::warningFlag : nsIScriptError::errorFlag,
NS_LITERAL_CSTRING("MIMEMISMATCH"), doc,
nsContentUtils::eSECURITY_PROPERTIES, nsCString(aMessageName).get(),
params, ArrayLength(params));
return NS_OK;
}
void HttpChannelChild::MaybeCallSynthesizedCallback() {
if (!mSynthesizedCallback) {
return;
}
mSynthesizedCallback->BodyComplete(mStatus);
mSynthesizedCallback = nullptr;
}
nsresult HttpChannelChild::CrossProcessRedirectFinished(nsresult aStatus) {
if (!CanSend()) {
return NS_BINDING_FAILED;
}
Unused << SendCrossProcessRedirectDone(aStatus);
return NS_OK;
}
} // namespace net
} // namespace mozilla
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