FilterPictureSink*
FilterPictureSink::make(FilterGraph* graph, AVFilterContext* ctx) {
Global::init();
RefPointer<FilterPictureSink> r;
r.reset(new FilterPictureSink(graph, ctx), true);
return r.get();
}
//
// Sign a binary that has no notion of architecture.
// That currently means anything that isn't Mach-O format.
//
void SecCodeSigner::Signer::signArchitectureAgnostic(const Requirement::Context &context)
{
// non-Mach-O executable - single-instance signing
RefPointer<DiskRep::Writer> writer = state.mDetached ?
(new DetachedBlobWriter(*this)) : rep->writer();
CodeDirectory::Builder builder(state.mDigestAlgorithm);
InternalRequirements ireqs;
ireqs(state.mRequirements, rep->defaultRequirements(NULL, state), context);
populate(*writer);
populate(builder, *writer, ireqs, rep->signingBase(), rep->signingLimit());
// add identification blob (made from this architecture) only if we're making a detached signature
if (state.mDetached) {
CFRef<CFDataRef> identification = rep->identification();
writer->component(cdIdentificationSlot, identification);
}
CodeDirectory *cd = builder.build();
CFRef<CFDataRef> signature = signCodeDirectory(cd);
if (!state.mDryRun) {
writer->codeDirectory(cd);
writer->signature(signature);
writer->flush();
}
::free(cd);
}
Coder*
Container::Stream::getCoder() {
if (!mCoder) {
// we need to know the stream direction...
AVFormatContext* ctx = mContainer->getFormatCtx();
AVStream* stream = getCtx();
if (!ctx || !stream) {
VS_THROW(HumbleRuntimeError("could not get container context to find coder"));
}
if (!stream->codec) {
VS_THROW(HumbleRuntimeError("No codec set for stream"));
}
RefPointer<Codec> codec;
if (ctx->iformat) {
// make a copy of the decoder so we decouple it from the container
// completely
codec = Codec::findDecodingCodec((Codec::ID)stream->codec->codec_id);
if (!codec) {
VS_THROW(HumbleRuntimeError("could not find decoding codec"));
}
mCoder = Decoder::make(codec.value(), stream->codec, true);
} else {
VS_THROW(HumbleRuntimeError("Got null encoder on MuxerStream which should not be possible"));
}
}
return mCoder.get();
}
bool SignallingInterface::notify(Notification event)
{
m_recvMutex.lock();
RefPointer<SignallingReceiver> tmp = m_receiver;
m_recvMutex.unlock();
return tmp && tmp->notify(event);
}
Codec*
Codec::guessEncodingCodec(MuxerFormat* pFmt, const char* shortName,
const char* url, const char* mimeType, MediaDescriptor::Type type) {
Global::init();
Codec* retval = 0;
RefPointer<MuxerFormat> fmt = 0;
AVOutputFormat * oFmt = 0;
// We acquire here because the RefPointer always
// releases.
fmt.reset(dynamic_cast<MuxerFormat*>(pFmt), true);
if (!fmt) {
fmt = MuxerFormat::guessFormat(shortName, url, mimeType);
}
if (fmt) oFmt = fmt->getCtx();
// Make sure at least one in put is specified.
// The av_guess_codec function REQUIRES a
// non null AVOutputFormat
// It also examines url with a strcmp(), so let's
// give it a zero-length string.
// In reality, it ignores the other params.
if (!url) url = "";
if (oFmt) {
enum AVCodecID id = av_guess_codec(oFmt, shortName, url, mimeType,
(enum AVMediaType) type);
retval = Codec::findEncodingCodecByIntID((int) id);
}
return retval;
}
bool SignallingReceiver::control(SignallingInterface::Operation oper, NamedList* params)
{
m_ifaceMutex.lock();
RefPointer<SignallingInterface> tmp = m_interface;
m_ifaceMutex.unlock();
return TelEngine::controlReturn(params,tmp && tmp->control(oper,params));
}
bool SignallingInterface::receivedPacket(const DataBlock& packet)
{
m_recvMutex.lock();
RefPointer<SignallingReceiver> tmp = m_receiver;
m_recvMutex.unlock();
return tmp && tmp->receivedPacket(packet);
}
void
MetaDataTest :: testStreamSetMetaData()
{
Helper h;
h.setupWriting("testStreamSetMetaData.mp3",
0, "libmp3lame", 0);
RefPointer<IStream> stream = h.container->getStream(0);
RefPointer<IMetaData> meta = stream->getMetaData();
VS_TUT_ENSURE("got meta data", meta);
meta = IMetaData::make();
if (meta)
{
VS_TUT_ENSURE_EQUALS("", meta->getNumKeys(), 0);
meta->setValue("author", "Art Clarke");
stream->setMetaData(meta.value());
}
meta = stream->getMetaData();
VS_TUT_ENSURE("got meta data", meta);
if (meta)
{
VS_TUT_ENSURE_EQUALS("", meta->getNumKeys(), 1);
const char* value = meta->getValue("author", IMetaData::METADATA_NONE);
VS_TUT_ENSURE("", strcmp("Art Clarke",value)==0);
}
}
BufferImpl*
BufferImpl :: make(io::humble::ferry::RefCounted* requestor, int32_t bufferSize)
{
RefPointer<BufferImpl> retval;
if (bufferSize <= 0)
VS_THROW(HumbleInvalidArgument("bufferSize must be > 0"));
void * allocator = requestor ? requestor->getJavaAllocator() : 0;
void *buffer = JNIMemoryManager::malloc(allocator, bufferSize);
if (!buffer) {
VS_THROW(HumbleBadAlloc());
}
try {
retval = BufferImpl::make();
retval->mBuffer = buffer;
retval->mBufferSize = bufferSize;
retval->mInternallyAllocated = true;
} catch (std::exception & e) {
JNIMemoryManager::free(buffer);
throw;
}
return retval.get();
}
BufferImpl*
BufferImpl :: make(io::humble::ferry::RefCounted* /*unused*/, void *bufToWrap, int32_t bufferSize,
FreeFunc freeFunc, void *closure)
{
RefPointer<BufferImpl> retval;
if (!bufToWrap) {
VS_THROW(HumbleInvalidArgument("bufToWrap must be non null"));
}
if (bufferSize <= 0) {
VS_THROW(HumbleInvalidArgument("bufferSize must be > 0"));
}
if (bufToWrap && bufferSize>0)
{
retval = BufferImpl::make();
retval->mFreeFunc = freeFunc;
retval->mClosure = closure;
retval->mBufferSize = bufferSize;
retval->mBuffer = bufToWrap;
retval->mInternallyAllocated = false;
}
return retval.get();
}
// Attach a tone detector on "chan.attach" as consumer or sniffer
bool AttachHandler::received(Message& msg)
{
String cons(msg.getValue("consumer"));
if (!cons.startsWith("tone/"))
cons.clear();
String snif(msg.getValue("sniffer"));
if (!snif.startsWith("tone/"))
snif.clear();
if (cons.null() && snif.null())
return false;
CallEndpoint* ch = static_cast<CallEndpoint*>(msg.userObject("CallEndpoint"));
RefPointer<DataEndpoint> de = static_cast<DataEndpoint*>(msg.userObject("DataEndpoint"));
DataSource* ds = static_cast<DataSource*>(msg.userObject("DataSource"));
if (ch) {
if (cons) {
ToneConsumer* c = new ToneConsumer(ch->id(),cons);
c->setFaxDivert(msg);
ch->setConsumer(c);
c->deref();
}
if (snif) {
de = ch->setEndpoint();
// try to reinit sniffer if one already exists
ToneConsumer* c = static_cast<ToneConsumer*>(de->getSniffer(snif));
if (c) {
c->init();
c->setFaxDivert(msg);
}
else {
c = new ToneConsumer(ch->id(),snif);
c->setFaxDivert(msg);
de->addSniffer(c);
c->deref();
}
}
return msg.getBoolValue("single");
}
else if (ds && cons) {
ToneConsumer* c = new ToneConsumer(msg.getValue("id"),cons);
c->setFaxDivert(msg);
bool ok = DataTranslator::attachChain(ds,c);
if (ok)
msg.userData(c);
else
msg.setParam("reason","attach-failure");
c->deref();
return ok && msg.getBoolValue("single");
}
else if (de && cons) {
ToneConsumer* c = new ToneConsumer(msg.getValue("id"),cons);
c->setFaxDivert(msg);
de->setConsumer(c);
c->deref();
return msg.getBoolValue("single");
}
else
Debug(&plugin,DebugWarn,"ToneDetector attach request with no call endpoint!");
return false;
}
FilterAudioSource*
FilterAudioSource::make(FilterGraph* graph,
AVFilterContext* ctx) {
Global::init();
RefPointer<FilterAudioSource> r;
r.reset(new FilterAudioSource(graph, ctx), true);
return r.get();
}
bool SignallingReceiver::transmitPacket(const DataBlock& packet, bool repeat,
SignallingInterface::PacketType type)
{
m_ifaceMutex.lock();
RefPointer<SignallingInterface> tmp = m_interface;
m_ifaceMutex.unlock();
return tmp && tmp->transmitPacket(packet,repeat,type);
}
void
BitStreamFilterTest::testMakeByType () {
const char* name = "noise";
RefPointer<BitStreamFilterType> t = BitStreamFilterType::getBitStreamFilterType(name);
TS_ASSERT(strcmp(name, t->getName())==0);
RefPointer<BitStreamFilter> f = BitStreamFilter::make(t.value());
TS_ASSERT(strcmp(name, f->getName())==0);
}
void
EncoderTest::testCreation() {
Logger::setGlobalIsLogging(Logger::LEVEL_TRACE, false);
RefPointer<Codec> codec = Codec::findEncodingCodec(Codec::CODEC_ID_H264);
RefPointer<Encoder> encoder = Encoder::make(codec.value());
TS_ASSERT(encoder);
}
MediaSubtitleRectangle*
MediaSubtitleRectangle::make(AVSubtitleRect* ctx) {
if (!ctx)
throw HumbleInvalidArgument("no context");
RefPointer<MediaSubtitleRectangle> retval = make();
retval->mCtx = ctx;
return retval.get();
}
void VertexArrayBuffer::UploadData(BindingInfo const & bindingInfo, void const * data, uint16_t count)
{
RefPointer<DataBuffer> buffer;
if (!bindingInfo.IsDynamic())
buffer = GetOrCreateStaticBuffer(bindingInfo);
else
buffer = GetOrCreateDynamicBuffer(bindingInfo);
buffer->UploadData(data, count);
}
void Reader::insertToken(TokenDaemon *tokend)
{
RefPointer<Token> token = new Token();
token->insert(*this, tokend);
mToken = token;
addReference(*token);
secdebug("reader", "%p (%s) inserted token %p",
this, name().c_str(), mToken);
}
void
MuxerFormatTest::testInstallation() {
int32_t n = MuxerFormat::getNumFormats();
TSM_ASSERT("", n > 0);
for(int32_t i = 0; i < n; i++) {
RefPointer<MuxerFormat> f = MuxerFormat::getFormat(i);
VS_LOG_DEBUG("Name: %s; Description: %s", f->getName(), f->getLongName());
}
}
void
PropertyTest :: testCreation()
{
LoggerStack stack;
stack.setGlobalLevel(Logger::LEVEL_WARN, false);
RefPointer<Configurable> c = Demuxer::make();
RefPointer<Property> property = c->getPropertyMetaData("packetsize");
VS_LOG_DEBUG("Name: %s", property->getName());
VS_LOG_DEBUG("Description: %s", property->getHelp());
TSM_ASSERT("should exist", property);
}
void
MediaPictureImpl::copy(AVFrame* src, bool complete) {
if (!src)
VS_THROW(HumbleInvalidArgument("no src"));
// release any memory we have
av_frame_unref(mFrame);
// and copy any data in.
av_frame_ref(mFrame, src);
RefPointer<Rational> timeBase = getTimeBase();
setTimeBase(timeBase.value());
mComplete=complete;
}
Buffer*
MediaPictureImpl::getData(int32_t plane) {
validatePlane(plane);
// we get the buffer for the given plane if it exists, and wrap
// it in an Buffer
// now we're guaranteed that we should have a plane.
RefPointer<Buffer> buffer;
if (mFrame->buf[plane])
buffer = AVBufferSupport::wrapAVBuffer(this,
mFrame->buf[plane], mFrame->data[plane], mFrame->buf[plane]->size);
return buffer.get();
}
RefPointer<Listener::Notification> Listener::JitterBuffer::popNotification()
{
JBuffer::iterator it = mBuffer.find(mNotifyLast + 1); // have next message?
if (it == mBuffer.end())
return NULL; // nothing here
else {
RefPointer<Notification> result = it->second; // save value
mBuffer.erase(it); // remove from buffer
secinfo("notify-jit", "%p retrieved from jitter buffer", result.get());
return result; // return it
}
}
// recode/clone:
//
// Special-purpose constructor for keychain synchronization. Copies an
// existing keychain but uses the operational keys from secretsBlob. The
// new KeychainDatabase will silently replace the existing KeychainDatabase
// as soon as the client declares that re-encoding of all keychain items is
// finished. This is a little perilous since it allows a client to dictate
// securityd state, but we try to ensure that only the client that started
// the re-encoding can declare it done.
//
KeychainDatabase::KeychainDatabase(KeychainDatabase &src, Process &proc, DbHandle dbToClone)
: LocalDatabase(proc), mValidData(false), mSecret(Allocator::standard(Allocator::sensitive)), mSaveSecret(false), version(0), mBlob(NULL)
{
mCred = DataWalkers::copy(src.mCred, Allocator::standard());
// Give this KeychainDatabase a temporary name
std::string newDbName = std::string("////") + std::string(src.identifier().dbName());
DLDbIdentifier newDLDbIdent(src.identifier().dlDbIdentifier().ssuid(), newDbName.c_str(), src.identifier().dlDbIdentifier().dbLocation());
DbIdentifier ident(newDLDbIdent, src.identifier());
// create common block and initialize
RefPointer<KeychainDbCommon> newCommon = new KeychainDbCommon(proc.session(), ident);
StLock<Mutex> _(*newCommon);
parent(*newCommon);
// set initial database parameters from the source keychain
common().mParams = src.common().mParams;
// establish the source keychain's master secret as ours
// @@@ NB: this is a v. 0.1 assumption. We *should* trigger new UI
// that offers the user the option of using the existing password
// or choosing a new one. That would require a new
// SecurityAgentQuery type, new UI, and--possibly--modifications to
// ensure that the new password is available here to generate the
// new master secret.
src.unlockDb(); // precaution for masterKey()
common().setup(src.blob(), src.common().masterKey());
// import the operational secrets
RefPointer<KeychainDatabase> srcKC = Server::keychain(dbToClone);
common().importSecrets(srcKC->common());
// import source keychain's ACL
CssmData pubAcl, privAcl;
src.acl().exportBlob(pubAcl, privAcl);
importBlob(pubAcl.data(), privAcl.data());
src.acl().allocator.free(pubAcl);
src.acl().allocator.free(privAcl);
// indicate that this keychain should be allowed to do some otherwise
// risky things required for copying, like re-encoding keys
mRecodingSource = &src;
common().setUnlocked();
mValidData = true;
encode();
proc.addReference(*this);
secdebug("SSdb", "database %s(%p) created as copy, common at %p",
common().dbName(), this, &common());
}
void
MediaAudioTest::testCreationFromBufferPlanar() {
const int32_t numSamples = 155; // I choose an odd number because HV will align up to 32
const int32_t sampleRate = 22050;
const int32_t channels = 15; // choose a large # of channels to make sure we expand the Frame
const AudioChannel::Layout layout = AudioChannel::CH_LAYOUT_UNKNOWN;
const AudioFormat::Type format = AudioFormat::SAMPLE_FMT_DBLP;
int32_t bufSize = AudioFormat::getBufferSizeNeeded(numSamples, channels,
format);
// test that there is rounding up
int32_t minSize = AudioFormat::getBytesPerSample(format) * numSamples
* channels;
TS_ASSERT_LESS_THAN(minSize, bufSize);
RefPointer<Buffer> src = Buffer::make(0, bufSize);
double* srcData = (double*) src->getBytes(0, bufSize);
// now, let's go nuts!
for (size_t i = 0; i < bufSize / sizeof(double); i++) {
srcData[i] = i;
}
RefPointer<MediaAudio> audio;
{
LoggerStack stack;
stack.setGlobalLevel(Logger::LEVEL_ERROR, false);
TS_ASSERT_THROWS(MediaAudio::make(0, numSamples, sampleRate, channels, layout,
format), HumbleInvalidArgument);
}
audio = MediaAudio::make(src.value(), numSamples, sampleRate, channels,
layout, format);
TS_ASSERT(audio);
TS_ASSERT_EQUALS(channels, audio->getNumDataPlanes());
// sigh; time to test each plane.
for (int i = 0; i < channels; i++) {
RefPointer<Buffer> dst = audio->getData(i);
TS_ASSERT(dst);
double* dstData = (double*) dst->getBytes(0, dst->getBufferSize());
// the values should be monotonically increasing given how we set them.
double last = dstData[0];
for (size_t j = 1; j < dst->getBufferSize() / sizeof(double); j++) {
TS_ASSERT_DELTA(last + 1, dstData[j], 0.001);
last = dstData[j];
}
}
}
bool ChanAssistList::received(Message& msg, int id)
{
String* chanId = msg.getParam("id");
if (!chanId || chanId->null())
return (id < Private) && Module::received(msg,id);
Lock mylock(this);
RefPointer <ChanAssist> ca = find(*chanId);
switch (id) {
case Startup:
if (ca) {
Debug(this,DebugNote,"Channel '%s' already assisted!",chanId->c_str());
mylock.drop();
ca->msgStartup(msg);
return false;
}
ca = create(msg,*chanId);
if (ca) {
m_calls.append(ca);
mylock.drop();
ca->msgStartup(msg);
}
return false;
case Hangup:
if (ca) {
removeAssist(ca);
mylock.drop();
ca->msgHangup(msg);
ca->deref();
ca = 0;
}
return false;
case Execute:
if (ca) {
mylock.drop();
ca->msgExecute(msg);
return false;
}
ca = create(msg,*chanId);
if (ca) {
m_calls.append(ca);
mylock.drop();
ca->msgStartup(msg);
ca->msgExecute(msg);
}
return false;
case Disconnected:
mylock.drop();
return ca && ca->msgDisconnect(msg,msg.getValue("reason"));
default:
mylock.drop();
if (ca)
return received(msg,id,ca);
return (id < Private) && Module::received(msg,id);
}
}
void PCSCMonitor::loadSoftToken(Bundle *tokendBundle)
{
try {
string bundleName = tokendBundle->identifier();
// prepare a virtual reader, removing any existing one (this would kill a previous tokend)
assert(mReaders.find(bundleName) == mReaders.end()); // not already present
RefPointer<Reader> reader = new Reader(tokenCache(), bundleName);
// now launch the tokend
RefPointer<TokenDaemon> tokend = new TokenDaemon(tokendBundle,
reader->name(), reader->pcscState(), reader->cache);
if (tokend->state() == ServerChild::dead) { // ah well, this one's no good
secinfo("pcsc", "softtoken %s tokend launch failed", bundleName.c_str());
Syslog::notice("Software token %s failed to run", tokendBundle->canonicalPath().c_str());
return;
}
// probe the (single) tokend
if (!tokend->probe()) { // non comprende...
secinfo("pcsc", "softtoken %s probe failed", bundleName.c_str());
Syslog::notice("Software token %s refused operation", tokendBundle->canonicalPath().c_str());
return;
}
// okay, this seems to work. Set it up
mReaders.insert(make_pair(reader->name(), reader));
reader->insertToken(tokend);
Syslog::notice("Software token %s activated", bundleName.c_str());
} catch (...) {
secinfo("pcsc", "exception loading softtoken %s - continuing", tokendBundle->identifier().c_str());
}
}
Buffer*
MediaSubtitleRectangle::getPictureData(int line)
{
if (line < 0 || line >= 4)
throw HumbleInvalidArgument("line must be between 0 and 3");
// add ref ourselves for the Buffer
this->acquire();
// create a buffer
RefPointer<Buffer> retval = Buffer::make(this, mCtx->pict.data[line], mCtx->pict.linesize[line],
Buffer::refCountedFreeFunc, this);
if (!retval)
this->release();
return retval.get();
}
void
BitStreamFilterTest::testNoiseFilter() {
const char* name = "noise";
RefPointer<BitStreamFilter> f = BitStreamFilter::make(name);
// let's generate a buffer to add noise to.
const int32_t inSize = 1024;
// Annoyingly I have to add FF_INPUT_BUFFER_PADDING_SIZE because the noise
// filter incorrectly memcopies an additional 16 bytes, and I want Valgrind to
// not worry about that.
RefPointer<Buffer> inBuf = Buffer::make(0, inSize+FF_INPUT_BUFFER_PADDING_SIZE);
uint8_t* in = static_cast<uint8_t*>(inBuf->getBytes(0, inSize));
int32_t outSize = inSize;
RefPointer<Buffer> outBuf = Buffer::make(0, outSize+FF_INPUT_BUFFER_PADDING_SIZE);
uint8_t* out = static_cast<uint8_t*>(outBuf->getBytes(0, outSize));
for(int32_t i = 0; i < inSize+FF_INPUT_BUFFER_PADDING_SIZE; i++) {
in[i] = static_cast<uint8_t>(i);
out[i] = in[i];
}
outSize = f->filter(outBuf.value(), 0, inBuf.value(), 0, inSize, 0, 0, false);
TS_ASSERT_EQUALS(outSize, inSize);
int matches = 0;
for(int32_t i = 0; i < inSize; i++) {
if (in[i] == out[i])
++ matches;
}
// noise should make sure that not all elements match.
TS_ASSERT(matches < inSize);
}
void
BitStreamFilterTest::testChompFilter() {
const char* name = "chomp";
RefPointer<BitStreamFilter> f = BitStreamFilter::make(name);
// let's generate a buffer to chomp nulls off the end of.
const int32_t inSize = 1024;
RefPointer<Buffer> inBuf = Buffer::make(0, inSize);
uint8_t* in = static_cast<uint8_t*>(inBuf->getBytes(0, inSize));
int32_t outSize = inSize;
RefPointer<Buffer> outBuf = Buffer::make(0, outSize);
uint8_t* out = static_cast<uint8_t*>(outBuf->getBytes(0, outSize));
// set the entire input buffer to null for now.
memset(in, 0, inSize);
// then set the first half of the buffer to be non-null.
for(int32_t i = 0; i < inSize/2; i++) {
in[i] = 0x01;
out[i] = in[i];
}
// should filter out all the null bytes at the end.
outSize = f->filter(outBuf.value(), 0, inBuf.value(), 0, inSize, 0, 0, false);
TS_ASSERT_EQUALS(outSize, inSize/2);
for(int32_t i = 0; i < inSize/2; i++) {
TS_ASSERT_EQUALS(in[i], out[i]);
}
}