This commit is contained in:
Dong Yu 2015-08-12 12:08:43 -07:00
Родитель d06170f0f2 bba8a92d69
Коммит a0645c9cdf
26 изменённых файлов: 33247 добавлений и 37268 удалений

1
.gitattributes поставляемый Normal file
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@ -0,0 +1 @@
run-test text eol=lf

7
.gitignore поставляемый
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@ -6,6 +6,11 @@
*.user
*.sln.docstates
*.orig
\#*
.\#*
# Local build configuration
Config.make
# Build results
@ -16,6 +21,8 @@ build/
[Bb]in/
[Oo]bj/
.run-*
lib/
bin/
# Enable "build/" folder in the NuGet Packages folder since NuGet packages use it for MSBuild targets
!packages/*/build/

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@ -54,7 +54,7 @@ typedef void* HANDLE;
#define __forceinline inline
//string and io conversion
#define strtok_s strtok_r
#define sprintf_s sprintf
#define sprintf_s snprintf
#define sscanf_s sscanf
#define _strdup strdup

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@ -24,12 +24,12 @@ namespace Microsoft { namespace MSR { namespace CNTK {
static const std::string::size_type npos = (std::string::size_type) -1;
// These are the constants associated with the "ResolveVariables" method.
static const std::string openBraceVar = "$";
static const std::string closingBraceVar = "$";
static const std::string forbiddenCharactersInVarName = ",/<>?;':\"[]{}\\|!@#%^&*()+=~` \t\n";
static const std::string forbiddenCharactersInVarNameEscapeWhitespace = ",/<>?;':\"[]{}\\|!@#%^&*()+=~` \\t\\n";
static const std::size_t openBraceVarSize = openBraceVar.size();
static const std::size_t closingBraceVarSize = openBraceVar.size();
static const char* openBraceVar = "$";
static const char* closingBraceVar = "$";
static const char* forbiddenCharactersInVarName = ",/<>?;':\"[]{}\\|!@#%^&*()+=~` \t\n";
static const char* forbiddenCharactersInVarNameEscapeWhitespace = ",/<>?;':\"[]{}\\|!@#%^&*()+=~` \\t\\n";
static const std::size_t openBraceVarSize = strlen(openBraceVar);
static const std::size_t closingBraceVarSize = strlen(closingBraceVar);
// Trim - trim white space off the start and end of the string
// str - string to trim
@ -991,7 +991,7 @@ public:
while (start != std::string::npos)
{
// search for whitespace or closing brace.
end = newConfigLine.find_first_of(closingBraceVar + forbiddenCharactersInVarName,
end = newConfigLine.find_first_of(std::string(closingBraceVar) + forbiddenCharactersInVarName,
start + openBraceVarSize);
// ensure that a closing brace exists for every opening brace.
@ -999,15 +999,15 @@ public:
if (end == std::string::npos)
{
RuntimeError("\"%s\" found without corresponding closing \"%s\": %s:%s",
openBraceVar.c_str(), closingBraceVar.c_str(),
openBraceVar, closingBraceVar,
m_configName.c_str(), newConfigLine.c_str());
}
if (newConfigLine[end] != '$')
{
RuntimeError("Forbidden characters found between \"%s\" and \"%s\". Variable names cannot any of the following characters: %s. %s:%s",
openBraceVar.c_str(), closingBraceVar.c_str(),
forbiddenCharactersInVarNameEscapeWhitespace.c_str(),
openBraceVar, closingBraceVar,
forbiddenCharactersInVarNameEscapeWhitespace,
m_configName.c_str(), newConfigLine.c_str());
}

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@ -138,7 +138,7 @@ void BinaryReader<ElemType>::DisplayProperties()
for (auto pair : m_sections)
{
Section* section = pair.second;
fprintf(stderr,"Section: %ls, Elements: %lld, ElementsPerRecord: %lld, ElementSize: %lld\n", pair.first.c_str(), section->GetElementCount(), section->GetElementsPerRecord(), section->GetElementSize());
fprintf(stderr,"Section: %ls, Elements: %zd, ElementsPerRecord: %zd, ElementSize: %zd\n", pair.first.c_str(), section->GetElementCount(), section->GetElementsPerRecord(), section->GetElementSize());
if (section->GetSectionType() == sectionTypeStats)
{
vector<NumericStatistics> stats;
@ -434,4 +434,4 @@ bool BinaryReader<ElemType>::DataEnd(EndDataType endDataType)
// instantiate all the combinations we expect to be used
template class BinaryReader<double>;
template class BinaryReader<float>;
}}}
}}}

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@ -1161,11 +1161,8 @@ namespace Microsoft { namespace MSR { namespace CNTK {
// Sets the utterance boundary.
if (m_framemode == false)
{
// If <m_truncated> is false, then the whole utterance
// will be loaded into the minibatch.
if (m_truncated == false)
if (startFrame == 0)
{
assert(startFrame == 0);
m_sentenceBegin.SetValue(i, 0, (ElemType)SEQUENCE_START);
m_minibatchPackingFlag[0] |= MinibatchPackingFlag::SequenceStart;
}
@ -1227,11 +1224,8 @@ namespace Microsoft { namespace MSR { namespace CNTK {
// minibatch, and then load it.
if (m_framemode == false)
{
// If <m_truncated> is false, then the whole utterance
// will be loaded into the minibatch.
if (m_truncated == false)
if (startFrame == 0)
{
assert(startFrame == 0);
m_sentenceBegin.SetValue(i, 0, (ElemType)SEQUENCE_START);
m_minibatchPackingFlag[0] |= MinibatchPackingFlag::SequenceStart;
}

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@ -445,7 +445,7 @@ public:
long TickDelta = TickStop - TickStart;
if (m_traceLevel > 2)
fprintf(stderr, "\n%l ms, %d numbers parsed\n\n", TickDelta, m_totalNumbersConverted );
fprintf(stderr, "\n%ld ms, %d numbers parsed\n\n", TickDelta, m_totalNumbersConverted );
return lineCount;
}
@ -608,7 +608,7 @@ public:
long TickDelta = TickStop - TickStart;
if (m_traceLevel > 2)
fprintf(stderr, "\n%l ms, %d numbers parsed\n\n", TickDelta, m_totalNumbersConverted );
fprintf(stderr, "\n%ld ms, %d numbers parsed\n\n", TickDelta, m_totalNumbersConverted );
return lineCount;
}

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@ -795,7 +795,7 @@ void SequenceReader<ElemType>::SetupEpoch()
if (m_totalSamples == 0)
{
if (m_traceLevel > 0)
fprintf(stderr, "starting at epoch %d parsing all data to determine record count\n", m_epoch);
fprintf(stderr, "starting at epoch %zd parsing all data to determine record count\n", m_epoch);
// choose a large number to read
m_parser.SetFilePosition(0);
m_mbStartSample = 0;
@ -805,7 +805,7 @@ void SequenceReader<ElemType>::SetupEpoch()
m_seqIndex = m_sequence.size();
}
if (m_traceLevel > 0)
fprintf(stderr, "\n %lld records found\n", m_totalSamples);
fprintf(stderr, "\n %zd records found\n", m_totalSamples);
}
m_seqIndex = 0;
@ -2129,4 +2129,4 @@ int BatchSequenceReader<ElemType>::GetSentenceEndIdFromOutputLabel()
template class BatchSequenceReader<double>;
template class BatchSequenceReader<float>;
}}}
}}}

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@ -653,7 +653,7 @@ long UCIParser<NumType, LabelType>::Parse(size_t recordsRequested, std::vector<N
long TickDelta = TickStop - TickStart;
if (m_traceLevel > 2)
fprintf(stderr, "\n%ld ms, %d numbers parsed\n\n", TickDelta, m_totalNumbersConverted );
fprintf(stderr, "\n%ld ms, %ld numbers parsed\n\n", TickDelta, m_totalNumbersConverted );
return recordCount;
}

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@ -25,7 +25,7 @@
\font_roman times
\font_sans helvet
\font_typewriter courier
\font_math auto
\font_math default
\font_default_family default
\use_non_tex_fonts false
\font_sc false
@ -56,11 +56,11 @@
\use_package cancel 0
\use_package esint 1
\use_package mathdots 1
\use_package mathtools 0
\use_package mathtools 1
\use_package mhchem 1
\use_package stackrel 0
\use_package stmaryrd 0
\use_package undertilde 0
\use_package stackrel 1
\use_package stmaryrd 1
\use_package undertilde 1
\cite_engine basic
\cite_engine_type default
\biblio_style plain
@ -99,23 +99,35 @@ An Introduction to Computational Networks and the Computational Network
\begin_layout Author
Dong Yu, Adam Eversole, Michael L.
Seltzer, Kaisheng Yao, Zhiheng Huang,
Seltzer, Kaisheng Yao,
\begin_inset Newline newline
\end_inset
Brian Guenter, Oleksii Kuchaiev, Yu Zhang, Frank Seide, Huaming Wang,
Brian Guenter, Oleksii Kuchaiev, Yu Zhang, Frank Seide, Guoguo Chen,
\begin_inset Newline newline
\end_inset
Jasha Droppo, Geoffrey Zweig, Chris Rossbach, Jon Currey,
Huaming Wang, Jasha Droppo, Amit Agarwal, Chris Basoglu,
\begin_inset Newline newline
\end_inset
Jie Gao, Avner May, Baolin Peng, Andreas Stolcke, Malcolm Slaney
Marko Padmilac, Alexey Kamenev, Vladimir Ivanov, Scott Cypher,
\begin_inset Newline newline
\end_inset
Hari Parthasarathi, Bhaskar Mitra, Zhiheng Huang, Geoffrey Zweig,
\begin_inset Newline newline
\end_inset
Chris Rossbach, Jon Currey,Jie Gao, Avner May, Baolin Peng,
\begin_inset Newline newline
\end_inset
Andreas Stolcke, Malcolm Slaney, Xuedong Huang
\end_layout
\begin_layout Date
MSR-TR-2014-112 (DRAFT v0.8: May 19, 2015)
MSR-TR-2014-112 (DRAFT v0.8: Aug 5, 2015)
\end_layout
\begin_layout Standard

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@ -2073,6 +2073,45 @@ SumElements(m)
\end_inset
\end_layout
\begin_layout Itemize
m - input matrix
\end_layout
\begin_layout Subsubsection
SumColumnElements
\begin_inset Index idx
status open
\begin_layout Plain Layout
SumColumnElements
\end_layout
\end_inset
\end_layout
\begin_layout Standard
Calculate the sum of all elements in each column of the input matrix.
The result is a row vector.
The syntax is
\end_layout
\begin_layout Standard
\begin_inset listings
inline false
status open
\begin_layout Plain Layout
SumColumnElements(m)
\end_layout
\end_inset
\end_layout
\begin_layout Itemize
@ -2118,6 +2157,55 @@ Negate(m)
m - input matrix.
\end_layout
\begin_layout Subsubsection
Reshape
\begin_inset Index idx
status open
\begin_layout Plain Layout
Reshape
\end_layout
\end_inset
\end_layout
\begin_layout Standard
Reshape the input matrix.
The resulting matrix has the same number of elements as that of the input
matrix but is interpreted differently.
The syntax is
\end_layout
\begin_layout Standard
\begin_inset listings
inline false
status open
\begin_layout Plain Layout
Reshape(m, numRows, [imageWidth=], [imageHeight=], [imageChannels=]
\end_layout
\end_inset
\end_layout
\begin_layout Itemize
m - input matrix.
\end_layout
\begin_layout Itemize
numRows - reshape to a matrix with numRows rows.
\end_layout
\begin_layout Itemize
imageWidth, imageHeight, imageChannels - are named optional parameters that
allow you to interpret each column as images with different dimensions.
\end_layout
\begin_layout Subsubsection
RowSlice
\begin_inset Index idx
@ -2401,23 +2489,13 @@ Minus
\end_inset
, ElementTimes
\begin_inset Index idx
status open
\begin_layout Plain Layout
ElementTimes
\end_layout
\end_inset
\end_layout
\begin_layout Standard
Calculate the sum (Plus), difference (Minus), or element-wise product (ElementTi
mes) of two matrices.
The resulting matrices have the same dimension as that of the input matrices.
Calculate the sum (Plus) and difference (Minus) of two matrices.
The resulting matrices have the same dimension as that of the input matrix
with larger dimension.
The syntax is
\end_layout
@ -2436,19 +2514,95 @@ Plus(m1, m2)
Minus(m1, m2)
\end_layout
\end_inset
\end_layout
\begin_layout Itemize
m1, m2 - input matrices.
\end_layout
\begin_layout Subsubsection
ElementTimes
\begin_inset Index idx
status open
\begin_layout Plain Layout
ElementTimes
\end_layout
\end_inset
, RowElementTimes
\begin_inset Index idx
status open
\begin_layout Plain Layout
RowElementTimes
\end_layout
\end_inset
, ColumnElementTimes
\begin_inset Index idx
status open
\begin_layout Plain Layout
ColumnElementTimes
\end_layout
\end_inset
,
\end_layout
\begin_layout Standard
Calculate the element-wise product of two matrices.
The resulting matrices have the same dimension as that of the input matrix
with larger dimension.
The syntax is
\end_layout
\begin_layout Standard
\begin_inset listings
inline false
status open
\begin_layout Plain Layout
ElementTimes(m1, m2)
\end_layout
\begin_layout Plain Layout
RowElementTimes(m, vrow)
\end_layout
\begin_layout Plain Layout
ColumnElementTimes(m, vcol)
\end_layout
\end_inset
\end_layout
\begin_layout Itemize
m1, m2 - input matrices.
Must be the same dimensions.
m1, m2, m - input matrices.
\end_layout
\begin_layout Itemize
vrow, vcol - row and column vectors
\end_layout
\begin_layout Standard
m1 and m2 must have same dimension in ElementTimes.
m and vrow must have same number of columns in RowElementTimes, and m and
vcol must have same number of rows in ColumnElementTimes.
\end_layout
\begin_layout Subsubsection
@ -3547,7 +3701,7 @@ stepH - step (or stride) used in the height direction
\end_layout
\begin_layout Subsubsection
Delay
PastValue (or Delay
\begin_inset Index idx
status open
@ -3557,11 +3711,21 @@ Delay
\end_inset
) and FutureValue
\begin_inset Index idx
status open
\begin_layout Plain Layout
FutureValue
\end_layout
\end_inset
\end_layout
\begin_layout Standard
Used to apply a value in the past to the current time.
Used to get the past or future value of a node.
It is most often used to create recurrent networks.
The resulting matrix has the same dimension as that of the input matrix.
The syntax is
@ -3574,7 +3738,17 @@ status open
\begin_layout Plain Layout
Delay(rows, [cols], m, [delayTime=1, defaultPastValue=0.1])
PastValue(rows, [cols], m, [timeStep=1, defaultHiddenActivity=0.1])
\end_layout
\begin_layout Plain Layout
Delay(rows, [cols], m, [delayTime=1, defaultPastValue=0.1]) #deprecated
\end_layout
\begin_layout Plain Layout
FutureValue(rows, [cols], m, [timeStep=1, defaultHiddenActivity=0.1])
\end_layout
\end_inset
@ -3583,19 +3757,19 @@ Delay(rows, [cols], m, [delayTime=1, defaultPastValue=0.1])
\end_layout
\begin_layout Itemize
rows - the number of rows in the delay node (and in the input matrix).
rows - the number of rows in the input matrix.
This parameter is needed because under some loopy conditions the dimensions
cannot be automatically inferred from the input matrix.
\end_layout
\begin_layout Itemize
cols - the number of columns in the delay node (and in the input matrix).
cols - the number of columns in the input matrix.
This parameter is optional since it will be set based on the minibatch
size during training and testing.
\end_layout
\begin_layout Itemize
m - input matrix to be delayed.
m - input matrix from which the past or future value is obtained.
Each column is a sample.
The samples may be from different utterances as explained in Chapter .
\begin_inset CommandInset ref
@ -3608,13 +3782,14 @@ reference "chap:CN"
\end_layout
\begin_layout Itemize
delayTime - [named optional] the amount of delay.
timeStep, delayTime - [named optional] the amount of time steps look into
past or future.
Default is 1.
\end_layout
\begin_layout Itemize
defaultPastValue - [named optional] the default value to use if the past
value is not available.
defaultHiddenActivity, defaultPastValue - [named optional] the default value
to use if the past or future values are not available.
Default is 0.1.
\end_layout

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@ -60,6 +60,9 @@ using namespace Microsoft::MSR::CNTK;
template <typename ElemType>
void TestCn(const ConfigParameters& config);
template <typename ElemType>
void DoEvalBeamSearch(const ConfigParameters& config, IDataReader<ElemType>& reader);
template <typename T>
struct compare_second
{
@ -726,41 +729,37 @@ void DoTrain(const ConfigParameters& config)
ConfigParameters readerConfig(config("reader"));
readerConfig.Insert("traceLevel", config("traceLevel", "0"));
IComputationNetBuilder<ElemType>* netBuilder = NULL;
unique_ptr<IComputationNetBuilder<ElemType> > netBuilder;
if (config.Exists("NDLNetworkBuilder"))
{
ConfigParameters configNDL(config("NDLNetworkBuilder"));
netBuilder = (IComputationNetBuilder<ElemType>*)new NDLBuilder<ElemType>(configNDL);
netBuilder = unique_ptr<IComputationNetBuilder<ElemType> >( static_cast<IComputationNetBuilder<ElemType>*>(new NDLBuilder<ElemType>(configNDL)));
}
else if (config.Exists("SimpleNetworkBuilder"))
{
ConfigParameters configSNB(config("SimpleNetworkBuilder"));
netBuilder = (IComputationNetBuilder<ElemType>*)new SimpleNetworkBuilder<ElemType>(configSNB);
netBuilder = unique_ptr<IComputationNetBuilder<ElemType> >{ static_cast<IComputationNetBuilder<ElemType>*>(new SimpleNetworkBuilder<ElemType>(configSNB)) };
}
else
{
RuntimeError("No network builder found in the config file. NDLNetworkBuilder or SimpleNetworkBuilde must be specified");
}
DataReader<ElemType>* dataReader = new DataReader<ElemType>(readerConfig);
unique_ptr<DataReader<ElemType> > dataReader { new DataReader<ElemType>(readerConfig) };
DataReader<ElemType>* cvDataReader = nullptr;
unique_ptr<DataReader<ElemType> > cvDataReader;
ConfigParameters cvReaderConfig(config("cvReader", L""));
if (cvReaderConfig.size() != 0)
{
cvReaderConfig.Insert("traceLevel", config("traceLevel", "0"));
cvDataReader = new DataReader<ElemType>(cvReaderConfig);
cvDataReader = unique_ptr<DataReader<ElemType> >{ new DataReader<ElemType>(cvReaderConfig) };
}
SGD<ElemType> sgd(configSGD);
sgd.Train(netBuilder, dataReader, cvDataReader, makeMode);
delete netBuilder;
delete dataReader;
delete cvDataReader;
sgd.Train(netBuilder.get(), dataReader.get(), cvDataReader.get(), makeMode);
}
template <typename ElemType>
@ -1477,7 +1476,8 @@ int wmain(int argc, wchar_t* argv[])
fcloseOrDie(fp);
}
fprintf(stderr, "COMPLETED\n");
}
fflush(stderr);
}
catch (const std::exception &err)
{
fprintf(stderr, "EXCEPTION occurred: %s\n", err.what());

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@ -1515,7 +1515,7 @@ public:
ComputationNodePtr newNode(new PairNetworkNode<ElemType>(m_deviceId, nodeName));
if (this->GetNodeFromName(a->NodeName(), nullptr, false) != nullptr)
{
fprintf(stderr, "PairNetwork : asked to pair a node with name l%s in another network.However, this network has already a node with the same name.Should avoid this case.\n", a->NodeName().c_str());
fprintf(stderr, "PairNetwork : asked to pair a node with name %ls in another network.However, this network has already a node with the same name.Should avoid this case.\n", a->NodeName().c_str());
throw std::runtime_error("PairNetwork : asked to pair a node with name in another network.However, this network has already a node with the same name.Should avoid this case.\n");
}
newNode->AttachInputs(a);
@ -2441,8 +2441,7 @@ public:
}
int FindInRecurrentLoop(const ComputationNodePtr startNode,
std::vector<ComputationNodePtr>& recurrentNodes,
bool isForwardComputing = false)
std::vector<ComputationNodePtr>& recurrentNodes)
{
int iFound = -1;
@ -2451,14 +2450,8 @@ public:
if (std::find((*iter).m_recurrentNodes.begin(), (*iter).m_recurrentNodes.end(), startNode) != (*iter).m_recurrentNodes.end())
{
iFound = (*iter).m_loopId;
if (isForwardComputing)
{
recurrentNodes = (*iter).m_recurrentNodesForForward;
}
else
{
recurrentNodes = (*iter).m_recurrentNodesForForward;
}
recurrentNodes = (*iter).m_recurrentNodesForForward;
break;
}
}
@ -2499,7 +2492,7 @@ public:
void EvaluateLoop(std::list<ComputationNodePtr>& /*allNodes*/, const ComputationNodePtr startNode)
{
std::vector<ComputationNodePtr> recurrentNodes;
int iLoopId = FindInRecurrentLoop(startNode, recurrentNodes, true);
int iLoopId = FindInRecurrentLoop(startNode, recurrentNodes);
if (iLoopId != -1 && IsFuncValueOlderThanInputs(recurrentNodes) &&
m_recurrentInfo[iLoopId].m_completedEvaluate == false)
{
@ -3337,7 +3330,7 @@ public:
bool UnitTest(const ComputationNodePtr rootNode)
{
fprintf(stderr, "\n\n Unit test node %ws \n", rootNode->NodeName().c_str());
fprintf(stderr, "\n\n Unit test node %ls \n", rootNode->NodeName().c_str());
std::list<ComputationNodePtr>& nodes = GetEvalOrder(rootNode);

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@ -33,41 +33,50 @@ namespace Microsoft {
namespace MSR {
namespace CNTK {
extern std::wstring GetEncoderModelNameForEpoch(int epoch, bool b = false);
extern std::wstring GetDecoderModelNameForEpoch(int epoch, bool b = false);
template<class ElemType>
class MultiNetworksSGD : SGD<ElemType>
{
ElemType m_default_activity;
typedef SGD<ElemType> SGD;
using SGDBase = SGD<ElemType>;
public:
using SGD::m_modelPath;
using SGD::m_maxEpochs;
using SGD::m_doUnitTest;
using SGD::m_learnRateAdjustInterval;
using SGD::m_mbSize;
using SGD::m_momentumPerSample;
using SGD::m_learningRatesPerSample;
using SGD::m_dropoutRates;
using SGD::m_autoLearnRateSearchType;
using SGD::m_minLearnRate;
using SGD::m_loadBestModel;
using SGD::m_validateAfterModelReloading;
using SGD::m_continueReduce;
using SGD::m_reduceLearnRateIfImproveLessThan;
using SGD::m_epochSize;
using SGD::m_learnRateDecreaseFactor;
using SGD::m_increaseLearnRateIfImproveMoreThan;
using SGD::m_learnRateIncreaseFactor;
using SGD::m_keepCheckPointFiles;
using SGD::m_doGradientCheck;
using SGD::m_L2RegWeight;
using SGD::m_L1RegWeight;
using SGD::m_needAveMultiplier;
using SGD::m_traceLevel;
using SGD::m_numMBsToShowResult;
using SGD::m_gradientCheckSigDigit;
using SGD::m_prevChosenMinibatchSize;
using SGDBase::m_modelPath;
using SGDBase::m_maxEpochs;
using SGDBase::m_doUnitTest;
using SGDBase::m_learnRateAdjustInterval;
using SGDBase::m_mbSize;
using SGDBase::m_momentumPerSample;
using SGDBase::m_learningRatesPerSample;
using SGDBase::m_dropoutRates;
using SGDBase::m_autoLearnRateSearchType;
using SGDBase::m_minLearnRate;
using SGDBase::m_loadBestModel;
using SGDBase::m_validateAfterModelReloading;
using SGDBase::m_continueReduce;
using SGDBase::m_reduceLearnRateIfImproveLessThan;
using SGDBase::m_epochSize;
using SGDBase::m_learnRateDecreaseFactor;
using SGDBase::m_increaseLearnRateIfImproveMoreThan;
using SGDBase::m_learnRateIncreaseFactor;
using SGDBase::m_keepCheckPointFiles;
using SGDBase::m_doGradientCheck;
using SGDBase::m_L2RegWeight;
using SGDBase::m_L1RegWeight;
using SGDBase::m_needAveMultiplier;
using SGDBase::m_traceLevel;
using SGDBase::m_numMBsToShowResult;
using SGDBase::m_gradientCheckSigDigit;
using SGDBase::m_prevChosenMinibatchSize;
using SGDBase::GetTrainCriterionNodes;
using SGDBase::GetEvalCriterionNodes;
using SGDBase::SetDropoutRate;
using SGDBase::UpdateEvalTimeStamps;
using SGDBase::UpdateWeights;
using SGDBase::GetCheckPointFileNameForEpoch;
typedef ComputationNode<ElemType>* ComputationNodePtr;
@ -80,7 +89,7 @@ namespace Microsoft {
list<pair<ComputationNodePtr, ComputationNodePtr>> m_lst_pair_encoder_decoder_nodes;
public:
MultiNetworksSGD(const ConfigParameters& configSGD) : SGD(configSGD)
MultiNetworksSGD(const ConfigParameters& configSGD) : SGDBase(configSGD)
{
}
@ -663,7 +672,7 @@ namespace Microsoft {
if (learnRatePerSample < m_minLearnRate)
{
fprintf(stderr, "Learn Rate Per Sample for Epoch[%lu] = %.8g is less than minLearnRate %.8g. Training stops.\n", i + 1, learnRatePerSample, m_minLearnRate);
fprintf(stderr, "Learn Rate Per Sample for Epoch[%d] = %.8g is less than minLearnRate %.8g. Training stops.\n", i + 1, learnRatePerSample, m_minLearnRate);
break;
}
@ -692,7 +701,7 @@ namespace Microsoft {
IDataReader<ElemType>* decoderTrainSetDataReader = trainDataReader[decoderIdx];
ComputationNetwork<ElemType>* decoderNet = nets[decoderIdx];
fprintf(stderr, "Finished Epoch[%lu]: [Training Set] Decoder Train Loss Per Sample = %.8g ", i + 1, epochCriterion);
fprintf(stderr, "Finished Epoch[%d]: [Training Set] Decoder Train Loss Per Sample = %.8g ", i + 1, epochCriterion);
if (epochEvalErrors.size() == 1)
{
fprintf(stderr, "EvalErr Per Sample = %.8g Ave Learn Rate Per Sample = %.10g Epoch Time=%.8g\n", epochEvalErrors[0], learnRatePerSample, epochTime);
@ -703,9 +712,9 @@ namespace Microsoft {
for (size_t j = 0; j<epochEvalErrors.size(); j++)
fprintf(stderr, "[%lu]=%.8g ", j, epochEvalErrors[j]);
fprintf(stderr, "Ave Learn Rate Per Sample = %.10g Epoch Time=%.8g\n", learnRatePerSample, epochTime);
fprintf(stderr, "Finished Epoch[%lu]: Criterion Node Per Sample = %.8g\n", i + 1, epochCriterion);
fprintf(stderr, "Finished Epoch[%d]: Criterion Node Per Sample = %.8g\n", i + 1, epochCriterion);
for (size_t j = 0; j<epochEvalErrors.size(); j++)
fprintf(stderr, "Finished Epoch[%lu]: Evaluation Node [%ws] Per Sample = %.8g\n", i + 1, evalNodeNames[j].c_str(), epochEvalErrors[j]);
fprintf(stderr, "Finished Epoch[%d]: Evaluation Node [%ls] Per Sample = %.8g\n", i + 1, evalNodeNames[j].c_str(), epochEvalErrors[j]);
}
if (decoderValidationSetDataReader != decoderTrainSetDataReader && decoderValidationSetDataReader != nullptr)
@ -717,7 +726,7 @@ namespace Microsoft {
validationDataReader,
m_mbSize[i]);
fprintf(stderr, "Finished Epoch[%lu]: [Validation Set] Loss Per Sample = %.8g \n ", vScore );
fprintf(stderr, "Finished Epoch[%d]: [Validation Set] Loss Per Sample = %.8g \n ", i+1, vScore );
epochCriterion = vScore;
}
@ -1013,7 +1022,7 @@ namespace Microsoft {
{
epochEvalErrors[i] = (const ElemType)localEpochEvalErrors(0, i);
}
fprintf(stderr, "total samples in epoch[%d] = %d\n", epochNumber, totalEpochSamples);
fprintf(stderr, "total samples in epoch[%d] = %zd\n", epochNumber, totalEpochSamples);
}
bool EncoderDecoderGradientCheck(
@ -1053,7 +1062,7 @@ namespace Microsoft {
irow = max(0, irow);
icol = max(0, icol);
fprintf(stderr, "\n###### d%ws######\n", node->NodeName().c_str());
fprintf(stderr, "\n###### d%ls######\n", node->NodeName().c_str());
deviceId = node->FunctionValues().GetDeviceId(); // original device id
node->FunctionValues().TransferFromDeviceToDevice(deviceId, CPUDEVICE, true, false, false);
@ -1124,7 +1133,7 @@ namespace Microsoft {
if (wrong)
{
char serr[2048];
sprintf_s((char*)serr, 2048, "Decoder %ws Numeric gradient = %e, Error BP gradient = %e", node->NodeName().c_str(), grdNum, grdErr);
sprintf_s((char*)serr, 2048, "Decoder %ls Numeric gradient = %e, Error BP gradient = %e", node->NodeName().c_str(), static_cast<double>(grdNum), static_cast<double>(grdErr));
fprintf(stdout, "%s\n", serr);
verror_msgs.push_back(serr);
}

Просмотреть файл

@ -1532,7 +1532,7 @@ protected:
if (epochNumber < 2 && m_prevChosenMinibatchSize != 0)
{
// newly started training: any previous MB size stored in the model is to be ignored
fprintf(stderr, "before epoch .2, previous minibatchSize %d is "
fprintf(stderr, "before epoch .2, previous minibatchSize %zd is "
"considered invalid -> resetting\n", m_prevChosenMinibatchSize);
m_prevChosenMinibatchSize = 0;
}
@ -1543,7 +1543,7 @@ protected:
(epochNumber + 1) % m_minibatchSizeTuningFrequency != 0)
{
fprintf(stderr, "AdaptiveMinibatchSearch: Search for a better minibatchSize "
"in epoch %d skipped, keeping minibatchSize of %d\n",
"in epoch %d skipped, keeping minibatchSize of %zd\n",
epochNumber + 1, m_prevChosenMinibatchSize);
chosenMinibatchSize = m_prevChosenMinibatchSize;
}
@ -1568,7 +1568,7 @@ protected:
assert(m_prevChosenMinibatchSize >= chosenMinibatchSize);
fprintf(stderr, "AdaptiveMinibatchSearch: Limiting maxMinibatchSize to "
"previous minibatchSize %d*2\n", m_prevChosenMinibatchSize);
"previous minibatchSize %zd*2\n", m_prevChosenMinibatchSize);
maxMinibatchSize = min(maxMinibatchSize, m_prevChosenMinibatchSize * 2);
}
@ -1634,7 +1634,7 @@ protected:
// round mbsize to something meaningful
trialMinibatchSize = RoundToMultipleOf64(trialMinibatchSizeFloat);
fprintf(stderr, "\nAdaptiveMinibatchSearch: Evaluating trial minibatchSize=%d out of range %d..%d ...\n\n",
fprintf(stderr, "\nAdaptiveMinibatchSearch: Evaluating trial minibatchSize=%zd out of range %zd..%zd ...\n\n",
trialMinibatchSize, RoundToMultipleOf64(minMinibatchSize), RoundToMultipleOf64(maxMinibatchSize));
size_t totalSamplesSeen;

Просмотреть файл

@ -911,7 +911,7 @@ namespace Microsoft {
ComputeTimeInMBs += MBComputeTime;
fprintf(stderr, "Sentenes Seen = %d; Samples seen = %d; Total Compute Time = %.8g ; Time Per Sample=%.8g\n", numMBsRun, totalEpochSamples, ComputeTimeInMBs, ComputeTimeInMBs / totalEpochSamples);
fprintf(stderr, "Sentences Seen = %zd; Samples seen = %zd; Total Compute Time = %.8g ; Time Per Sample=%.8g\n", numMBsRun, totalEpochSamples, ComputeTimeInMBs, ComputeTimeInMBs / totalEpochSamples);
}
startReadMBTime = clock();
@ -1229,7 +1229,7 @@ namespace Microsoft {
{
ElemType score = result_queue.top().score;
best_score = score;
fprintf(stderr, "best[%d] score = %.4e\t", ibest, score);
fprintf(stderr, "best[%zd] score = %.4e\t", ibest, score);
if (best_path.size() > 0)
WriteNbest(ibest, best_path, outputNodes, dataWriter);
}

520
Makefile
Просмотреть файл

@ -7,228 +7,402 @@
#
# This makefile will be extended/completed as we go.
#
# You will need to modify PATH and LD_LIBRARY_PATH environment variables to run CNTK
# export LD_LIBRARY_PATH=<path_to_math_lib>/ifort64/lib:<path_to_cuda>/lib64:/usr/local/lib
# export PATH=$PATH:/usr/local/bin:<path_to_cuda>/bin
#
# In order to deviate from the default settings in this Makefile, please specify options on
# the make command line, like this, for example (to build release):
#
# make BUILDTYPE=release -j
# To use this Makefile, create a directory to build in and make a Config.make in the directory
# that provides
# ACML_PATH= path to ACML library installation
# only needed if MATHLIB=acml
# MKL_PATH= path to MKL library installation
# only needed if MATHLIB=mkl
# GDK_PATH= path to cuda gdk installation, so $(GDK_PATH)/include/nvidia/gdk/nvml.h exists
# defaults to /usr
# BUILDTYPE= One of release or debug
# defaults to release
# MATHLIB= One of acml or mkl
# defaults to acml
# CUDA_PATH= Path to CUDA
# If not specified, GPU will not be enabled
# KALDI_PATH= Path to Kaldi
# If not specified, Kaldi plugins will not be built
CC = g++
NVCC = nvcc
ARCH = x86_64
# DEVICE can also be cpu
DEVICE = gpu
# BUILDTYPE can also be release
BUILDTYPE = debug
# MATHLIB can also be mkl
MATHLIB = acml
# This is a suggested/default location for ACML library
MATHLIB_PATH = /usr/local/acml5.3.1/ifort64
# This is a suggested/default location for CUDA
CUDA_PATH = /usr/local/cuda-7.0
# This is a suggested/default location for NVML
NVML_INCLUDE = /usr/include/nvidia/gdk
NVML_LIB = /usr/src/gdk/nvml/lib
#######
BUILDFOR = $(ARCH).$(DEVICE).$(BUILDTYPE).$(MATHLIB)
OBJDIR = .build/$(BUILDFOR)
BINDIR = bin/$(BUILDFOR)
# Set up debug vs release compiler settings, both nvcc and gcc
ifeq ($(BUILDTYPE),debug)
BUILDTYPE_OPT = -g
GPU_BUILDTYPE_OPT = -O0 -G -lineinfo
else
BUILDTYPE_OPT = -O3 -flto
GPU_BUILDTYPE_OPT = -O3 -use_fast_math -lineinfo
ifndef BUILD_TOP
BUILD_TOP=.
endif
# Set up math library defines and libraries
ifeq ($(MATHLIB),mkl)
MATHLIB_INCLUDE = $(MATHLIB_PATH)/mkl/include
MATHLIB_LIB = -L$(MATHLIB_PATH)/compiler/lib/intel64 -L$(MATHLIB_PATH)/mkl/lib/intel64 -L$(MATHLIB_PATH)/compiler/lib/mic -L$(MATHLIB_PATH)/mkl/lib/mic -lmkl_intel_lp64 -lmkl_intel_thread -lmkl_core -lm -liomp5 -lpthread
MATHLIB_DEFINE = -DUSE_MKL
ifneq ("$(wildcard $(BUILD_TOP)/Config.make)","")
include $(BUILD_TOP)/Config.make
else
MATHLIB_INCLUDE = $(MATHLIB_PATH)/include
MATHLIB_LIB = -L$(MATHLIB_PATH)/lib -lacml -lm -lpthread
MATHLIB_DEFINE = -DUSE_ACML
$(error Cannot fine $(BUILD_TOP)/Config.make. Please see the README file for configuration instructions.)
endif
# Set up CUDA includes and libraries
CUDA_INCLUDE = $(CUDA_PATH)/include
CUDA_LIB = -L$(CUDA_PATH)/lib64 -L$(NVML_LIB) -lcublas -lcudart -lcurand -lcusparse -lnvidia-ml
# Set up final list of libs to use
ifeq ($(DEVICE),gpu)
LINK_LIBS = $(CUDA_LIB) $(MATHLIB_LIB)
else
LINK_LIBS = $(MATHLIB_LIB)
ifndef BUILDTYPE
$(info Defaulting BUILDTYPE=release)
BUILDTYPE=release
endif
# Compile CNTK math into its own shared library to ensure that any change to its
# global variables, like CUDA streams is made in one place and has global effect.
# Otherwise, different clients of CNTK math would observe different states.
CNTKMATH_LINK_LIB = -L$(BINDIR) -lcntkmath
CNTKMATH_LIB = $(BINDIR)/libcntkmath.so
# Set up gcc includes and libraries
INCFLAGS_COMMON = -I Common/Include -I Math/Math -I MachineLearning/CNTK -I $(MATHLIB_INCLUDE)
CFLAGS_COMMON = -msse3 -std=c++0x -std=c++11 -D_POSIX_SOURCE -D_XOPEN_SOURCE=600 -D__USE_XOPEN2K $(MATHLIB_DEFINE) -fopenmp -fpermissive -fPIC
ifeq ($(DEVICE),gpu)
INCFLAGS = $(INCFLAGS_COMMON) -I $(CUDA_INCLUDE) -I $(NVML_INCLUDE)
CFLAGS = $(CFLAGS_COMMON)
else
INCFLAGS = $(INCFLAGS_COMMON)
CFLAGS = $(CFLAGS_COMMON) -DCPUONLY
ifndef MATHLIB
$(info DEFAULTING MATHLIB=acml)
MATHLIB=acml
endif
#### Configure based on options above
CXX = g++
INCLUDEPATH:= Common/Include Math/Math MachineLearning/CNTK
CPPFLAGS:= -D_POSIX_SOURCE -D_XOPEN_SOURCE=600 -D__USE_XOPEN2K
CXXFLAGS:= -msse3 -std=c++0x -std=c++11 -fopenmp -fpermissive -fPIC
LIBPATH:=
LIBS:=
LDFLAGS:=
SEPARATOR = "=-----------------------------------------------------------="
ALL:=
SRC:=
# Make sure all is the first (i.e. default) target, but we can't actually define it
# this early in the file, so let buildall do the work.
all : buildall
# Set up nvcc target architectures (will generate code to support them all, i.e. fat-binary)
GENCODE_SM20 := -gencode arch=compute_20,code=\"sm_20,compute_20\"
GENCODE_SM30 := -gencode arch=compute_30,code=\"sm_30,compute_30\"
GENCODE_SM35 := -gencode arch=compute_35,code=\"sm_35,compute_35\"
GENCODE_FLAGS := $(GENCODE_SM20) $(GENCODE_SM30) $(GENCODE_SM35)
# Set up basic nvcc options and add GPU targets from above
NVCCFLAGS = -std=c++11 -D_POSIX_SOURCE -D_XOPEN_SOURCE=600 -D__USE_XOPEN2K -m 64 $(GENCODE_FLAGS)
# Set up basic nvcc options and add CUDA targets from above
CUFLAGS = -std=c++11 -D_POSIX_SOURCE -D_XOPEN_SOURCE=600 -D__USE_XOPEN2K -m 64 $(GENCODE_FLAGS)
# Set up linker option to embed ORIGIN, i.e. directory where cntk is into the search path option
# at runtime. This will try to resolve all dependent binaries in the same directory where cntk binary resides
LDFLAGS=-Wl,-rpath,'$$ORIGIN'
ifdef CUDA_PATH
ifndef GDK_PATH
$(info defaulting GDK_PATH to /usr)
GDK_PATH=/usr
endif
# Define all sources that need to be built
COMMON_SRC = Common/fileutil.cpp Common/DataWriter.cpp Common/ConfigFile.cpp Common/DataReader.cpp \
Common/Eval.cpp Common/File.cpp Common/BestGpu.cpp Common/TimerUtility.cpp
DEVICE = gpu
MATH_COMMON_SRC = Math/Math/Matrix.cpp Math/Math/CPUMatrix.cpp Math/Math/CPUSparseMatrix.cpp
NVCC = $(CUDA_PATH)/bin/nvcc
# This is a suggested/default location for NVML
INCLUDEPATH+=$(GDK_PATH)/include/nvidia/gdk
NVMLPATH=$(GDK_PATH)/src/gdk/nvml/lib
# Set up CUDA includes and libraries
INCLUDEPATH += $(CUDA_PATH)/include
LIBPATH += $(CUDA_PATH)/lib64
LIBS += -lcublas -lcudart -lcuda -lcurand -lcusparse -lnvidia-ml
ifeq ($(DEVICE),gpu)
MATH_SRC = $(MATH_COMMON_SRC) Math/Math/GPUMatrix.cu Math/Math/GPUMatrixCUDAKernels.cu Math/Math/GPUSparseMatrix.cu Math/Math/GPUWatcher.cu
else
MATH_SRC = $(MATH_COMMON_SRC) Math/Math/NoGPU.cpp
DEVICE = cpu
CPPFLAGS +=-DCPUONLY
endif
CN_SRC = MachineLearning/CNTK/NetworkDescriptionLanguage.cpp MachineLearning/CNTK/CNTK.cpp MachineLearning/CNTK/ComputationNode.cpp \
MachineLearning/CNTK/ModelEditLanguage.cpp MachineLearning/CNTK/SimpleNetworkBuilder.cpp MachineLearning/CNTK/tests.cpp \
MachineLearning/CNTK/Profiler.cpp MachineLearning/CNTKEval/CNTKEval.cpp
ifeq ("$(MATHLIB)","acml")
INCLUDEPATH += $(ACML_PATH)/include
LIBPATH += $(ACML_PATH)/lib
LIBS += -lacml -lm -lpthread
CPPFLAGS += -DUSE_ACML
endif
BINARYREADER_SRC = DataReader/BinaryReader/BinaryWriter.cpp DataReader/BinaryReader/BinaryReader.cpp DataReader/BinaryReader/BinaryFile.cpp
HTKMLFREADER_SRC = DataReader/HTKMLFReader_linux/HTKMLFWriter.cpp DataReader/HTKMLFReader_linux/DataWriter.cpp DataReader/HTKMLFReader_linux/DataReader.cpp DataReader/HTKMLFReader_linux/HTKMLFReader.cpp
SEQUENCEREADER_SRC = DataReader/LMSequenceReader/SequenceReader.cpp DataReader/LMSequenceReader/SequenceParser.cpp DataReader/LMSequenceReader/Exports.cpp
LUSEQUENCEREADER_SRC = DataReader/LUSequenceReader/LUSequenceReader.cpp DataReader/LUSequenceReader/LUSequenceParser.cpp DataReader/LUSequenceReader/Exports.cpp
UCIFASTREADER_SRC = DataReader/UCIFastReader/UCIParser.cpp DataReader/UCIFastReader/UCIFastReader.cpp DataReader/UCIFastReader/Exports.cpp
ifeq ("$(MATHLIB)","mkl")
INCLUDEPATH += $(MKL_PATH)/mkl/include
LIBPATH += $(MKL_PATH)/compiler/lib/intel64 $(MKL_PATH)/mkl/lib/intel64 $(MKL_PATH)/compiler/lib/mic $(MKL_PATH)/mkl/lib/mic
LIBS += -lmkl_intel_lp64 -lmkl_intel_thread -lmkl_core -lm -liomp5 -lpthread
CPPFLAGS += -DUSE_MKL
endif
READER_SRC = $(UCIFASTREADER_SRC) $(LUSEQUENCEREADER_SRC) $(HTKMLFREADER_SRC) $(SEQUENCEREADER_SRC) $(BINARYREADER_SRC)
CORE_SRC = $(CN_SRC) $(COMMON_SRC)
SRC = $(READER_SRC) $(CORE_SRC) $(MATH_SRC)
ifdef KALDI_PATH
########## Copy includes and defines from $(KALDI_PATH)/src/kaldi.mk ##########
FSTROOT = $(KALDI_PATH)/tools/openfst
ATLASINC = $(KALDI_PATH)/tools/ATLAS/include
INCLUDEPATH += $(KALDI_PATH)/src $(ATLASINC) $(FSTROOT)/include
CPPFLAGS+= -DKALDI_DOUBLEPRECISION=0 -DHAVE_POSIX_MEMALIGN -DHAVE_EXECINFO_H=1 -DHAVE_CXXABI_H -DHAVE_ATLAS -DHAVE_OPENFST_GE_10400
KALDI_LIBPATH += $(KALDI_PATH)/src/lib
KALDI_LIBS += -lkaldi-util -lkaldi-matrix -lkaldi-base -lkaldi-hmm -lkaldi-cudamatrix -lkaldi-nnet -lkaldi-lat
endif
ifeq ("$(BUILDTYPE)","debug")
CXXFLAGS += -g
CUFLAGS += -O0 -G -lineinfo
endif
ifeq ("$(BUILDTYPE)","release")
CXXFLAGS += -O4
CUFLAGS += -O3 -use_fast_math -lineinfo
endif
#######
OBJDIR:= $(BUILD_TOP)/.build
BINDIR:= $(BUILD_TOP)/bin
LIBDIR:= $(BUILD_TOP)/lib
ORIGINLIBDIR:='$$ORIGIN/../lib'
ORIGINDIR:='$$ORIGIN'
CNTKMATH:=cntkmath
########################################
# Math library
########################################
# Define all sources that need to be built
COMMON_SRC =\
Common/BestGpu.cpp \
Common/ConfigFile.cpp \
Common/DataReader.cpp \
Common/DataWriter.cpp \
Common/Eval.cpp \
Common/File.cpp \
Common/TimerUtility.cpp \
Common/fileutil.cpp \
MATH_SRC =\
Math/Math/CPUMatrix.cpp \
Math/Math/CPUSparseMatrix.cpp \
Math/Math/Matrix.cpp \
ifdef CUDA_PATH
MATH_SRC +=\
Math/Math/GPUMatrix.cu \
Math/Math/GPUMatrixCUDAKernels.cu \
Math/Math/GPUSparseMatrix.cu \
Math/Math/GPUWatcher.cu \
else
MATH_SRC +=\
Math/Math/NoGPU.cpp
endif
MATH_SRC+=$(COMMON_SRC)
MATH_OBJ := $(patsubst %.cu, $(OBJDIR)/%.o, $(patsubst %.cpp, $(OBJDIR)/%.o, $(MATH_SRC)))
CNTKMATH_LIB:= $(LIBDIR)/lib$(CNTKMATH).so
ALL += $(CNTKMATH_LIB)
SRC+=$(MATH_SRC)
RPATH=-Wl,-rpath,
$(CNTKMATH_LIB): $(MATH_OBJ)
@echo $(SEPARATOR)
@echo creating $@ for $(ARCH) with build type $(BUILDTYPE)
@mkdir -p $(dir $@)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBPATH) $(NVMLPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(LIBPATH)) -o $@ $^ $(LIBS) -fopenmp
########################################
# BinaryReader plugin
########################################
BINARYREADER_SRC =\
DataReader/BinaryReader/BinaryFile.cpp \
DataReader/BinaryReader/BinaryReader.cpp \
DataReader/BinaryReader/BinaryWriter.cpp \
BINARYREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(BINARYREADER_SRC))
BINARY_READER:= $(LIBDIR)/BinaryReader.so
#ALL += $(BINARY_READER)
#SRC+=$(BINARYREADER_SRC)
$(BINARY_READER): $(BINARYREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH)
########################################
# HTKMLFReader plugin
########################################
HTKMLFREADER_SRC =\
DataReader/HTKMLFReader_linux/DataReader.cpp \
DataReader/HTKMLFReader_linux/DataWriter.cpp \
DataReader/HTKMLFReader_linux/HTKMLFReader.cpp \
DataReader/HTKMLFReader_linux/HTKMLFWriter.cpp \
HTKMLREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(HTKMLFREADER_SRC))
HTKMLREADER:=$(LIBDIR)/HTKMLFReader.so
ALL+=$(HTKMLREADER)
SRC+=$(HTKMLREADER_SRC)
$(LIBDIR)/HTKMLFReader.so: $(HTKMLREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH)
########################################
# LMSequenceReader plugin
########################################
LMSEQUENCEREADER_SRC =\
DataReader/LMSequenceReader/Exports.cpp \
DataReader/LMSequenceReader/SequenceParser.cpp \
DataReader/LMSequenceReader/SequenceReader.cpp \
LMSEQUENCEREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(LMSEQUENCEREADER_SRC))
LMSEQUENCEREADER:= $(LIBDIR)/LMSequenceReader.so
ALL+=$(LMSEQUENCEREADER)
SRC+=$(LMSEQUENCEREADER_SRC)
$(LMSEQUENCEREADER): $(LMSEQUENCEREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH)
########################################
# LUSequenceReader plugin
########################################
LUSEQUENCEREADER_SRC =\
DataReader/LUSequenceReader/Exports.cpp \
DataReader/LUSequenceReader/LUSequenceParser.cpp \
DataReader/LUSequenceReader/LUSequenceReader.cpp \
LUSEQUENCEREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(LUSEQUENCEREADER_SRC))
LUSEQUENCEREADER:=$(LIBDIR)/LUSequenceReader.so
ALL+=$(LUSEQUENCEREADER)
SRC+=$(LUSEQUENCEREADER_SRC)
$(LUSEQUENCEREADER): $(LUSEQUENCEREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH)
########################################
# UCIFastReader plugin
########################################
UCIFASTREADER_SRC =\
DataReader/UCIFastReader/Exports.cpp \
DataReader/UCIFastReader/UCIFastReader.cpp \
DataReader/UCIFastReader/UCIParser.cpp \
UCIFASTREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(UCIFASTREADER_SRC))
UCIFASTREADER:=$(LIBDIR)/UCIFastReader.so
ALL += $(UCIFASTREADER)
SRC+=$(UCIFASTREADER_SRC)
$(UCIFASTREADER): $(UCIFASTREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH)
########################################
# Kaldi plugins
########################################
ifdef KALDI_PATH
KALDIREADER_SRC = \
DataReader/KaldiReader/DataReader.cpp \
DataReader/KaldiReader/DataWriter.cpp \
DataReader/KaldiReader/HTKMLFReader.cpp \
DataReader/KaldiReader/HTKMLFWriter.cpp \
KALDIREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(KALDIREADER_SRC))
KALDIREADER:=$(LIBDIR)/KaldiReader.so
ALL+=$(KALDIREADER)
SRC+=$(KALDIREADER_SRC)
$(KALDIREADER): $(KALDIREADER_OBJ)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(KALDI_LIBPATH) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(KALDI_LIBPATH) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH) $(KALDI_LIBS)
KALDIWRITER:=$(LIBDIR)/KaldiWriter.so
ALL+=$(KALDIWRITER)
$(KALDIWRITER): $(KALDIREADER_OBJ)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH)
KALDI2READER_SRC = \
DataReader/Kaldi2Reader/DataReader.cpp \
DataReader/Kaldi2Reader/DataWriter.cpp \
DataReader/Kaldi2Reader/HTKMLFReader.cpp \
DataReader/Kaldi2Reader/HTKMLFWriter.cpp \
DataReader/Kaldi2Reader/KaldiSequenceTrainingDerivative.cpp \
DataReader/Kaldi2Reader/UtteranceDerivativeBuffer.cpp \
KALDI2READER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(KALDI2READER_SRC))
KALDI2READER:=$(LIBDIR)/Kaldi2Reader.so
ALL+=$(KALDI2READER)
SRC+=$(KALDI2READER_SRC)
$(KALDI2READER): $(KALDI2READER_OBJ)
@echo $(SEPARATOR)
$(CXX) $(LDFLAGS) -shared $(patsubst %,-L%, $(LIBDIR) $(KALDI_LIBPATH) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINDIR) $(KALDI_LIBPATH) $(LIBPATH)) -o $@ $^ -l$(CNTKMATH) $(KALDI_LIBS)
endif
########################################
# cntk
########################################
CNTK_SRC =\
MachineLearning/CNTK/CNTK.cpp \
MachineLearning/CNTK/ComputationNode.cpp \
MachineLearning/CNTK/ModelEditLanguage.cpp \
MachineLearning/CNTK/NetworkDescriptionLanguage.cpp \
MachineLearning/CNTK/Profiler.cpp \
MachineLearning/CNTK/SimpleNetworkBuilder.cpp \
MachineLearning/CNTK/tests.cpp \
MachineLearning/CNTKEval/CNTKEval.cpp \
CNTK_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(CNTK_SRC))
CNTK:=$(BINDIR)/cntk
ALL+=$(CNTK)
$(CNTK): $(CNTK_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
@mkdir -p $(dir $@)
@echo building output for $(ARCH) with build type $(BUILDTYPE)
$(CXX) $(LDFLAGS) $(patsubst %,-L%, $(LIBDIR) $(LIBPATH)) $(patsubst %,$(RPATH)%, $(ORIGINLIBDIR) $(LIBPATH)) -o $@ $^ $(LIBS) -l$(CNTKMATH) -fopenmp
########################################
# General compile and dependency rules
########################################
VPATH := $(sort $(dir $(SRC)))
# Define object files
OBJ_TMP := $(patsubst %.cpp, $(OBJDIR)/%.o, $(SRC))
ifeq ($(DEVICE),gpu)
OBJ := $(patsubst %.cu, $(OBJDIR)/%.o, $(OBJ_TMP))
else
OBJ := $(OBJ_TMP)
endif
CORE_OBJ_TMP := $(patsubst %.cpp, $(OBJDIR)/%.o, $(CORE_SRC))
ifeq ($(DEVICE),gpu)
CORE_OBJ := $(patsubst %.cu, $(OBJDIR)/%.o, $(CORE_OBJ_TMP))
else
CORE_OBJ := $(CORE_OBJ_TMP)
endif
COMMON_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(COMMON_SRC))
MATH_OBJ_TMP := $(patsubst %.cpp, $(OBJDIR)/%.o, $(MATH_SRC))
ifeq ($(DEVICE),gpu)
MATH_OBJ := $(patsubst %.cu, $(OBJDIR)/%.o, $(MATH_OBJ_TMP))
else
MATH_OBJ := $(MATH_OBJ_TMP)
endif
UCIFASTREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(UCIFASTREADER_SRC))
LUSEQUENCEREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(LUSEQUENCEREADER_SRC))
SEQUENCEREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(SEQUENCEREADER_SRC))
HTKMLFREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(HTKMLFREADER_SRC))
BINARYREADER_OBJ := $(patsubst %.cpp, $(OBJDIR)/%.o, $(BINARYREADER_SRC))
OBJ := $(patsubst %.cu, $(OBJDIR)/%.o, $(patsubst %.cpp, $(OBJDIR)/%.o, $(SRC)))
# C++ include dependencies generated by -MF compiler option
DEP := $(patsubst %.o, %.d, $(OBJ))
SEPARATOR = "=-----------------------------------------------------------="
# Define build targets
all: $(BINDIR)/cntk $(BINDIR)/UCIFastReader.so $(BINDIR)/LMSequenceReader.so $(BINDIR)/LUSequenceReader.so $(BINDIR)/HTKMLFReader.so
@echo $(SEPARATOR)
@echo finished building for $(ARCH) with build type $(BUILDTYPE)
$(BINDIR)/UCIFastReader.so: $(UCIFASTREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CC) $(BUILDTYPE_OPT) -fPIC -shared -o $@ $^ $(CNTKMATH_LINK_LIB)
$(BINDIR)/LMSequenceReader.so: $(SEQUENCEREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CC) $(BUILDTYPE_OPT) -fPIC -shared -o $@ $^ $(CNTKMATH_LINK_LIB)
$(BINDIR)/LUSequenceReader.so: $(LUSEQUENCEREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CC) $(BUILDTYPE_OPT) -fPIC -shared -o $@ $^ $(CNTKMATH_LINK_LIB)
$(BINDIR)/HTKMLFReader.so: $(HTKMLFREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CC) $(BUILDTYPE_OPT) -fPIC -shared -o $@ $^ $(CNTKMATH_LINK_LIB)
$(BINDIR)/BinaryReader.so: $(BINARYREADER_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
$(CC) $(BUILDTYPE_OPT) -fPIC -shared -o $@ $^ $(CNTKMATH_LINK_LIB)
$(BINDIR)/cntk: $(CORE_OBJ) | $(CNTKMATH_LIB)
@echo $(SEPARATOR)
@mkdir -p $(dir $@)
@echo building output for $(ARCH) with build type $(BUILDTYPE)
$(CC) $(BUILDTYPE_OPT) $(LDFLAGS) -o $@ $^ $(LINK_LIBS) $(CNTKMATH_LINK_LIB) -fopenmp -ldl -fPIC
$(CNTKMATH_LIB): $(MATH_OBJ) $(COMMON_OBJ)
@echo $(SEPARATOR)
@echo creating $@ for $(ARCH) with build type $(BUILDTYPE)
@mkdir -p $(dir $@)
$(CC) $(BUILDTYPE_OPT) -fPIC -shared -o $@ $^ $(LINK_LIBS) -fopenmp
# Include all C++ dependencies, like header files, to ensure that a change in those
# will result in the rebuild.
-include ${DEP}
ifeq ($(DEVICE),gpu)
$(OBJDIR)/%.o : %.cu Makefile
@echo $(SEPARATOR)
@echo creating $@ for $(ARCH) with build type $(BUILDTYPE)
@mkdir -p $(dir $@)
$(NVCC) -c $< -o $@ $(GPU_BUILDTYPE_OPT) $(NVCCFLAGS) $(INCFLAGS) -Xcompiler -fPIC
endif
$(NVCC) -c $< -o $@ $(CUFLAGS) $(INCLUDEPATH:%=-I%) -Xcompiler -fPIC
$(OBJDIR)/%.o : %.cpp Makefile
@echo $(SEPARATOR)
@echo creating $@ for $(ARCH) with build type $(BUILDTYPE)
@mkdir -p $(dir $@)
$(CC) -c $< -o $@ $(BUILDTYPE_OPT) $(CPPFLAGS) $(CFLAGS) $(INCFLAGS) -MD -MP -MF ${@:.o=.d}
$(CXX) -c $< -o $@ $(CPPFLAGS) $(CXXFLAGS) $(INCLUDEPATH:%=-I%) -MD -MP -MF ${@:.o=.d}
.PHONY: clean
.PHONY: clean buildall all
clean:
@echo $(SEPARATOR)
@rm -rf $(OBJDIR)
@rm -rf $(BINDIR)
@rm -rf $(ALL)
@echo finished cleaning up the project
buildall : $(ALL)
@echo $(SEPARATOR)
@echo finished building for $(ARCH) with build type $(BUILDTYPE)

65
README
Просмотреть файл

@ -33,55 +33,62 @@ To build the cpu version, you have to install intel MKL blas library or ACML lib
for MKL:
1. Download from https://software.intel.com/en-us/intel-mkl
2. You can modify variable MKL_PATH in makefile.cpu to change your mkl path.
Then add ${MKL_PATH}/mkl/lib/intel64, ${MKL_PATH}/mkl/lib/mic, ${MKL_PATH}/compiler/lib/intel64. ${MKL_PATH}/compiler/lib/mic to your ${LD_LIBRARY_PATH} to make sure the program links the library correctly.
for ACML:
1. Download from http://developer.amd.com/tools-and-sdks/cpu-development/amd-core-math-library-acml/
2. Modify ACML_PATH in the makefile.cpu and makefile.gpu to provide your ACML library path.
You need to add ${ACML_PATH}/lib to your ${LD_LIBRARY_PATH}.
for Kaldi:
1. In kaldi-trunk/tools/Makefile, uncomment # OPENFST_VERSION = 1.4.1, and
re-install OpenFst using the makefile.
2. In kaldi-trunk/src/, do ./configure --shared; make depend -j 8; make -j 8;
and re-compile Kaldi (the -j option is for parallelization).
3. Set KALDI_PATH in kaldi_vars.mk
4. When running the binaries, make sure you add $KALDI_PATH/tools/openfst/lib
and $KALDI_PATH/src/lib/ to your $LD_LIBRARY_PATH
To build the gpu version, you have to install NIVIDIA CUDA first
You can modify the path CUDA_PATH in makefile.cpu to change your cuda path
We use cuda-7.0 as default.
Then add ${CUDA_PATH}/lib, ${CUDA_PATH}/lib64 to your ${LD_LIBRARY_PATH} to make sure the program links to the library correctly.
... TODO: add documentation on nvml lib
== Build Preparation ==
Let $CNTK be the CNTK directory.
>mkdir build
>$CNTK/configure -h
== Build ==
To build the cpu version, run
make DEVICE=cpu
To build the gpu version, run
make
To clean the compile, just run
make DEVICE=cpu clean
or
make clean
You will see various options for configure, as well as their default
values. CNTK needs a CPU math directory, either acml or mkl. If you
do not specify one and both are available, acml will be used. For GPU
use, a cuda and gdk directory are also required. Similary, to build
the kaldi plugin a kaldi directory is required. You may also specify
whether you want a debug or release build. Rerun configure with the
desired options.
For release version, just add BUILDTYPE=release to the make command line.
>$CNTK/configure ...
This will create a Config.make and a Makefile (if you are in the $CNTK
directory, a Makefile will not be created). The Config.make file
records the configuration parameters and the Makefile reinvokes the
$CNTK/Makefile, passing it the build directory where it can find the
Config.make.
After make completes, you will have the following directories:
.build will contain object files, and can be deleted
bin contains the cntk program
lib contains libraries and plugins
The bin and lib directories can safely be moved as long as they remain siblings.
To clean
>make clean
== Run ==
All executables are in bin/ directory:
cn.exe: The main executable for CNTK
All executables are in bin directory:
cntk: The main executable for CNTK
*.so: shared library for corresponding reader, these readers will be linked and loaded dynamically at runtime.
To run the executable, make sure bin/ is in your ${LD_LIBRARY_PATH}, if not, running cn.exe will fail when cn.exe tries to link the corresponding reader. Once it's done, run in command line:
./cn.exe configFile=${your config file}
./cntk configFile=${your cntk config file}
== Kaldi Reader ==
This is a HTKMLF reader and kaldi writer (for decode)
To build the cpu/gpu version, run
make -f Makefile_kaldi.cpu/gpu
To build, set KALDI_PATH in your Config.make
The feature section is like:
@ -102,9 +109,7 @@ writer=[
== Kaldi2 Reader ==
This is a kaldi reader and kaldi writer (for decode)
To build the cpu/gpu version, run
make -f Makefile_kaldi2.cpu/gpu
To build, set KALDI_PATH in your Config.make
The features section is different:

Просмотреть файл

@ -96,10 +96,11 @@ if [[ $OS == "Windows_NT" && $OSTYPE == "cygwin" ]]; then
exit 1
fi
elif [[ $OSTYPE == "linux-gnu" ]]; then
DEBUG_DIR=x86_64.gpu.debug.acml
RELEASE_DIR=x86_64.gpu.release.acml
PREFIX_DIR=bin
BIN_NAME=cntk
DEBUG_DIR=build/debug
RELEASE_DIR=build/release
PREFIX_DIR=
# Make sure no dependencies on current directory
BIN_NAME=bin/cntk
MAKEFILE=Makefile
BUILD_OS="linux"
else
@ -179,12 +180,16 @@ if [[ $BUILD == 1 ]]; then
fi
msbuild.exe /property:Configuration=$FLAVOR /m 1>&6 2>&7 || exit $?
else
BUILD_DIR=build/$FLAVOR
./configure --with-build-top=$BUILD_DIR --with-acml=$ACML_PATH --with-buildtype=$FLAVOR
if [[ $CLEAN_BEFORE == 1 ]]; then
make BUILDTYPE=$FLAVOR -f $MAKEFILE clean 1>&6 2>&7 || exit $?
make -C $BUILD_DIR -f $MAKEFILE clean 1>&6 2>&7 || exit $?
fi
make BUILDTYPE=$FLAVOR -j -f $MAKEFILE 1>&6 2>&7 || exit $?
make -C $BUILD_DIR -j -f $MAKEFILE 1>&6 2>&7 || exit $?
fi
if [[ $QUIET_BUILD == 1 ]]; then
chmod a+r $BUILD_FILE.*
fi
chmod a+r $BUILD_FILE.*
done
fi
@ -212,18 +217,21 @@ if [[ $RUN == 1 ]]; then
fi
OUT_FILE="$RUN_FILE.$FLAVOR.$TARGET.out"
if ! [[ -f "./$FLAVOR_DIR/$BIN_NAME" ]]; then
BIN_PATH=$CNTK_ROOT/$FLAVOR_DIR/$BIN_NAME
if ! [[ -f $BIN_PATH ]]; then
echo "============ ERROR: CNTK did not build properly for flavor ($FLAVOR) ============"
echo "Missing file: $BIN_PATH"
exit 1
fi
echo "============ Running CNTK for ($FLAVOR) ($TARGET), output in ($RUN_FILE.*) ============"
cd $CNTK_ROOT/Demos
rm -rf models
if [[ $OS == "Windows_NT" ]]; then
# We have to use cygpath on Windows to modify the file paths into the format readable by cntk.
time ./$FLAVOR_DIR/$BIN_NAME configFile="`cygpath -w $CONF_FILE`" &>$OUT_FILE || exit $?
time $BIN_PATH configFile="`cygpath -w $CONF_FILE`" &>$OUT_FILE || exit $?
else
time ./$FLAVOR_DIR/$BIN_NAME configFile=$CONF_FILE &>$OUT_FILE || exit $?
time $BIN_PATH configFile=$CONF_FILE &>$OUT_FILE || exit $?
fi
chmod a+r $RUN_FILE.*

Просмотреть файл

@ -0,0 +1,738 @@
=== Running /cygdrive/c/Users/svcphil/workspace.vlivan/CNTK-Build-Windows/x64/release/cntk.exe configFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\QuickE2E\cntk.config RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data DeviceId=Auto
-------------------------------------------------------------------
Build info:
Built time: Aug 11 2015 16:18:17
Last modified date: Tue Aug 11 16:16:08 2015
Built by svcphil on dphaim-26-new
Build Path: C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\MachineLearning\CNTK\
CUDA_PATH: C:\Program Files\NVIDIA GPU Computing Toolkit\CUDA\v7.0
Build Branch: master
Build SHA1: 397cc7cc16c00b1c12864d331c0729fde7a1bde3
-------------------------------------------------------------------
running on dphaim-26-new at 2015/08/11 17:47:10
command line options:
configFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\QuickE2E\cntk.config RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data DeviceId=Auto
>>>>>>>>>>>>>>>>>>>> RAW CONFIG (VARIABLES NOT RESOLVED) >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=$DeviceId$
parallelTrain=false
speechTrain=[
action=train
modelPath=$RunDir$/models/cntkSpeech.dnn
deviceId=$DeviceId$
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=$DataDir$/glob_0000.mlf
labelMappingFile=$DataDir$/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG (VARIABLES NOT RESOLVED) <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> RAW CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=Auto
parallelTrain=false
speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> PROCESSED CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
configparameters: cntk.config:command=speechTrain
configparameters: cntk.config:DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
configparameters: cntk.config:deviceId=Auto
configparameters: cntk.config:parallelTrain=false
configparameters: cntk.config:precision=float
configparameters: cntk.config:RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu
configparameters: cntk.config:speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
<<<<<<<<<<<<<<<<<<<< PROCESSED CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
command: speechTrain
precision = float
LockDevice: Capture device 1 and lock it for exclusive use
LockDevice: Capture device 2 and lock it for exclusive use
LockDevice: Capture device 3 and lock it for exclusive use
LockDevice: Capture device 0 and lock it for exclusive use
LockDevice: Capture device 1 and lock it for exclusive use
SimpleNetworkBuilder Using GPU 1
reading script file glob_0000.scp ... 948 entries
trainlayer: OOV-exclusion code enabled, but no unigram specified to derive the word set from, so you won't get OOV exclusion
total 132 state names in state list C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
htkmlfreader: reading MLF file C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf ... total 948 entries
...............................................................................................feature set 0: 252734 frames in 948 out of 948 utterances
label set 0: 129 classes
minibatchutterancesource: 948 utterances grouped into 3 chunks, av. chunk size: 316.0 utterances, 84244.7 frames
GetTrainCriterionNodes ...
GetEvalCriterionNodes ...
Validating node CrossEntropyWithSoftmax
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 3])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 3])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 3], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 3])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 3], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 3])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 3])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 3], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 3])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 3])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 3], B2[132, 1])
Validating --> CrossEntropyWithSoftmax = CrossEntropyWithSoftmax(labels[132, 3], HLast[132, 3])
Found 3 PreCompute nodes
NodeName: InvStdOfFeatures
NodeName: MeanOfFeatures
NodeName: Prior
minibatchiterator: epoch 0: frames [0..252734] (first utterance at frame 0) with 1 datapasses
requiredata: determined feature kind as 33-dimensional 'USER' with frame shift 10.0 ms
Validating node InvStdOfFeatures
Validating --> features = InputValue
Validating --> InvStdOfFeatures = InvStdDev(features[363, 64])
Validating node MeanOfFeatures
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 64])
Validating node Prior
Validating --> labels = InputValue
Validating --> Prior = Mean(labels[132, 64])
Set Max Temp Mem Size For Convolution Nodes to 0 samples.
Starting Epoch 1: learning rate per sample = 0.015625 momentum = 0.900000
minibatchiterator: epoch 0: frames [0..20480] (first utterance at frame 0) with 1 datapasses
Validating node EvalErrorPrediction
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 64])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 64])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 64], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 64])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 64], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 64])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 64])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 64], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 64])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 64])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 64], B2[132, 1])
Validating --> EvalErrorPrediction = ErrorPrediction(labels[132, 64], HLast[132, 64])
Epoch[ 1 of 3]-Minibatch[ 1- 10 of 320]: SamplesSeen = 640; TrainLossPerSample = 4.45646143; EvalErr[0]PerSample = 0.92500001; TotalTime = 0.01913s; TotalTimePerSample = 0.02988ms; SamplesPerSecond = 33462
Epoch[ 1 of 3]-Minibatch[ 11- 20 of 320]: SamplesSeen = 640; TrainLossPerSample = 4.22315693; EvalErr[0]PerSample = 0.90156251; TotalTime = 0.01453s; TotalTimePerSample = 0.02270ms; SamplesPerSecond = 44043
Epoch[ 1 of 3]-Minibatch[ 21- 30 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.95180511; EvalErr[0]PerSample = 0.84687501; TotalTime = 0.01459s; TotalTimePerSample = 0.02279ms; SamplesPerSecond = 43874
Epoch[ 1 of 3]-Minibatch[ 31- 40 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.94157934; EvalErr[0]PerSample = 0.89843750; TotalTime = 0.01459s; TotalTimePerSample = 0.02280ms; SamplesPerSecond = 43859
Epoch[ 1 of 3]-Minibatch[ 41- 50 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.85668945; EvalErr[0]PerSample = 0.91093749; TotalTime = 0.01456s; TotalTimePerSample = 0.02275ms; SamplesPerSecond = 43953
Epoch[ 1 of 3]-Minibatch[ 51- 60 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.72866368; EvalErr[0]PerSample = 0.89531249; TotalTime = 0.01450s; TotalTimePerSample = 0.02265ms; SamplesPerSecond = 44140
Epoch[ 1 of 3]-Minibatch[ 61- 70 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.51809072; EvalErr[0]PerSample = 0.82968748; TotalTime = 0.01453s; TotalTimePerSample = 0.02271ms; SamplesPerSecond = 44034
Epoch[ 1 of 3]-Minibatch[ 71- 80 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.48454905; EvalErr[0]PerSample = 0.80781251; TotalTime = 0.01452s; TotalTimePerSample = 0.02269ms; SamplesPerSecond = 44074
Epoch[ 1 of 3]-Minibatch[ 81- 90 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.33829641; EvalErr[0]PerSample = 0.76875001; TotalTime = 0.01453s; TotalTimePerSample = 0.02271ms; SamplesPerSecond = 44037
Epoch[ 1 of 3]-Minibatch[ 91- 100 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.50167227; EvalErr[0]PerSample = 0.79843748; TotalTime = 0.01447s; TotalTimePerSample = 0.02261ms; SamplesPerSecond = 44229
WARNING: The same matrix with dim [1, 1] has been transferred between different devices for 20 times.
Epoch[ 1 of 3]-Minibatch[ 101- 110 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.22861624; EvalErr[0]PerSample = 0.80000001; TotalTime = 0.01459s; TotalTimePerSample = 0.02279ms; SamplesPerSecond = 43874
Epoch[ 1 of 3]-Minibatch[ 111- 120 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.32616878; EvalErr[0]PerSample = 0.79062498; TotalTime = 0.01449s; TotalTimePerSample = 0.02264ms; SamplesPerSecond = 44174
Epoch[ 1 of 3]-Minibatch[ 121- 130 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.16897583; EvalErr[0]PerSample = 0.77968752; TotalTime = 0.01448s; TotalTimePerSample = 0.02262ms; SamplesPerSecond = 44201
Epoch[ 1 of 3]-Minibatch[ 131- 140 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.08891916; EvalErr[0]PerSample = 0.77656251; TotalTime = 0.01442s; TotalTimePerSample = 0.02253ms; SamplesPerSecond = 44385
Epoch[ 1 of 3]-Minibatch[ 141- 150 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.06004953; EvalErr[0]PerSample = 0.72968751; TotalTime = 0.01454s; TotalTimePerSample = 0.02271ms; SamplesPerSecond = 44031
Epoch[ 1 of 3]-Minibatch[ 151- 160 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.91128540; EvalErr[0]PerSample = 0.69531250; TotalTime = 0.01446s; TotalTimePerSample = 0.02259ms; SamplesPerSecond = 44272
Epoch[ 1 of 3]-Minibatch[ 161- 170 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.90172124; EvalErr[0]PerSample = 0.72968751; TotalTime = 0.01450s; TotalTimePerSample = 0.02266ms; SamplesPerSecond = 44128
Epoch[ 1 of 3]-Minibatch[ 171- 180 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.73261714; EvalErr[0]PerSample = 0.65312499; TotalTime = 0.01447s; TotalTimePerSample = 0.02261ms; SamplesPerSecond = 44232
Epoch[ 1 of 3]-Minibatch[ 181- 190 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.66515493; EvalErr[0]PerSample = 0.68437499; TotalTime = 0.01453s; TotalTimePerSample = 0.02270ms; SamplesPerSecond = 44061
Epoch[ 1 of 3]-Minibatch[ 191- 200 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.67383432; EvalErr[0]PerSample = 0.66406250; TotalTime = 0.01449s; TotalTimePerSample = 0.02264ms; SamplesPerSecond = 44165
Epoch[ 1 of 3]-Minibatch[ 201- 210 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.52869272; EvalErr[0]PerSample = 0.63593751; TotalTime = 0.01450s; TotalTimePerSample = 0.02266ms; SamplesPerSecond = 44134
Epoch[ 1 of 3]-Minibatch[ 211- 220 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.60032344; EvalErr[0]PerSample = 0.66718751; TotalTime = 0.01450s; TotalTimePerSample = 0.02266ms; SamplesPerSecond = 44128
Epoch[ 1 of 3]-Minibatch[ 221- 230 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.51134038; EvalErr[0]PerSample = 0.64843750; TotalTime = 0.01452s; TotalTimePerSample = 0.02268ms; SamplesPerSecond = 44086
Epoch[ 1 of 3]-Minibatch[ 231- 240 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.45362544; EvalErr[0]PerSample = 0.63749999; TotalTime = 0.01452s; TotalTimePerSample = 0.02269ms; SamplesPerSecond = 44068
Epoch[ 1 of 3]-Minibatch[ 241- 250 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.41640615; EvalErr[0]PerSample = 0.61562502; TotalTime = 0.01445s; TotalTimePerSample = 0.02258ms; SamplesPerSecond = 44287
Epoch[ 1 of 3]-Minibatch[ 251- 260 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.39745474; EvalErr[0]PerSample = 0.62812501; TotalTime = 0.01447s; TotalTimePerSample = 0.02261ms; SamplesPerSecond = 44229
Epoch[ 1 of 3]-Minibatch[ 261- 270 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.16415405; EvalErr[0]PerSample = 0.56718749; TotalTime = 0.01454s; TotalTimePerSample = 0.02272ms; SamplesPerSecond = 44013
Epoch[ 1 of 3]-Minibatch[ 271- 280 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.30347300; EvalErr[0]PerSample = 0.63593751; TotalTime = 0.01454s; TotalTimePerSample = 0.02272ms; SamplesPerSecond = 44016
Epoch[ 1 of 3]-Minibatch[ 281- 290 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.24398804; EvalErr[0]PerSample = 0.60937500; TotalTime = 0.01446s; TotalTimePerSample = 0.02260ms; SamplesPerSecond = 44253
Epoch[ 1 of 3]-Minibatch[ 291- 300 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.15322256; EvalErr[0]PerSample = 0.57968748; TotalTime = 0.01447s; TotalTimePerSample = 0.02262ms; SamplesPerSecond = 44214
Epoch[ 1 of 3]-Minibatch[ 301- 310 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.21664429; EvalErr[0]PerSample = 0.59531248; TotalTime = 0.01448s; TotalTimePerSample = 0.02262ms; SamplesPerSecond = 44208
Epoch[ 1 of 3]-Minibatch[ 311- 320 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.25246572; EvalErr[0]PerSample = 0.60156250; TotalTime = 0.01442s; TotalTimePerSample = 0.02253ms; SamplesPerSecond = 44392
Finished Epoch[1]: [Training Set] TrainLossPerSample = 3.0000031; EvalErrPerSample = 0.72836918; Ave LearnRatePerSample = 0.015625; EpochTime=0.4851
Starting Epoch 2: learning rate per sample = 0.001953 momentum = 0.656119
minibatchiterator: epoch 1: frames [20480..40960] (first utterance at frame 20480) with 1 datapasses
Epoch[ 2 of 3]-Minibatch[ 1- 10 of 80]: SamplesSeen = 2560; TrainLossPerSample = 2.08151960; EvalErr[0]PerSample = 0.55859375; TotalTime = 0.03149s; TotalTimePerSample = 0.01230ms; SamplesPerSecond = 81290
Epoch[ 2 of 3]-Minibatch[ 11- 20 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.98395634; EvalErr[0]PerSample = 0.54257810; TotalTime = 0.02336s; TotalTimePerSample = 0.00913ms; SamplesPerSecond = 109570
Epoch[ 2 of 3]-Minibatch[ 21- 30 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.98575521; EvalErr[0]PerSample = 0.54492188; TotalTime = 0.02325s; TotalTimePerSample = 0.00908ms; SamplesPerSecond = 110116
Epoch[ 2 of 3]-Minibatch[ 31- 40 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.90484965; EvalErr[0]PerSample = 0.53164065; TotalTime = 0.02321s; TotalTimePerSample = 0.00906ms; SamplesPerSecond = 110316
Epoch[ 2 of 3]-Minibatch[ 41- 50 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.88324130; EvalErr[0]PerSample = 0.52539063; TotalTime = 0.02328s; TotalTimePerSample = 0.00909ms; SamplesPerSecond = 109975
Epoch[ 2 of 3]-Minibatch[ 51- 60 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.89109266; EvalErr[0]PerSample = 0.53359377; TotalTime = 0.02325s; TotalTimePerSample = 0.00908ms; SamplesPerSecond = 110093
Epoch[ 2 of 3]-Minibatch[ 61- 70 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.89496076; EvalErr[0]PerSample = 0.52890623; TotalTime = 0.02326s; TotalTimePerSample = 0.00909ms; SamplesPerSecond = 110055
Epoch[ 2 of 3]-Minibatch[ 71- 80 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.85944366; EvalErr[0]PerSample = 0.52265626; TotalTime = 0.02296s; TotalTimePerSample = 0.00897ms; SamplesPerSecond = 111473
Finished Epoch[2]: [Training Set] TrainLossPerSample = 1.9356024; EvalErrPerSample = 0.53603518; Ave LearnRatePerSample = 0.001953125; EpochTime=0.195263
Starting Epoch 3: learning rate per sample = 0.000098 momentum = 0.656119
minibatchiterator: epoch 2: frames [40960..61440] (first utterance at frame 40960) with 1 datapasses
Epoch[ 3 of 3]-Minibatch[ 1- 10 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.86752820; EvalErr[0]PerSample = 0.52177733; TotalTime = 0.08160s; TotalTimePerSample = 0.00797ms; SamplesPerSecond = 125485
Epoch[ 3 of 3]-Minibatch[ 11- 20 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.87358737; EvalErr[0]PerSample = 0.51542968; TotalTime = 0.05742s; TotalTimePerSample = 0.00561ms; SamplesPerSecond = 178319
Finished Epoch[3]: [Training Set] TrainLossPerSample = 1.8705578; EvalErrPerSample = 0.5186035; Ave LearnRatePerSample = 9.765625146e-005; EpochTime=0.142001
COMPLETED
=== Deleting last epoch data
==== Re-running from checkpoint
-------------------------------------------------------------------
Build info:
Built time: Aug 11 2015 16:18:17
Last modified date: Tue Aug 11 16:16:08 2015
Built by svcphil on dphaim-26-new
Build Path: C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\MachineLearning\CNTK\
CUDA_PATH: C:\Program Files\NVIDIA GPU Computing Toolkit\CUDA\v7.0
Build Branch: master
Build SHA1: 397cc7cc16c00b1c12864d331c0729fde7a1bde3
-------------------------------------------------------------------
running on dphaim-26-new at 2015/08/11 17:47:19
command line options:
configFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\QuickE2E\cntk.config RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data DeviceId=Auto
>>>>>>>>>>>>>>>>>>>> RAW CONFIG (VARIABLES NOT RESOLVED) >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=$DeviceId$
parallelTrain=false
speechTrain=[
action=train
modelPath=$RunDir$/models/cntkSpeech.dnn
deviceId=$DeviceId$
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=$DataDir$/glob_0000.mlf
labelMappingFile=$DataDir$/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG (VARIABLES NOT RESOLVED) <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> RAW CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=Auto
parallelTrain=false
speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> PROCESSED CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
configparameters: cntk.config:command=speechTrain
configparameters: cntk.config:DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
configparameters: cntk.config:deviceId=Auto
configparameters: cntk.config:parallelTrain=false
configparameters: cntk.config:precision=float
configparameters: cntk.config:RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu
configparameters: cntk.config:speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
<<<<<<<<<<<<<<<<<<<< PROCESSED CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
command: speechTrain
precision = float
LockDevice: Capture device 1 and lock it for exclusive use
LockDevice: Capture device 2 and lock it for exclusive use
LockDevice: Capture device 3 and lock it for exclusive use
LockDevice: Capture device 0 and lock it for exclusive use
LockDevice: Capture device 1 and lock it for exclusive use
SimpleNetworkBuilder Using GPU 1
reading script file glob_0000.scp ... 948 entries
trainlayer: OOV-exclusion code enabled, but no unigram specified to derive the word set from, so you won't get OOV exclusion
total 132 state names in state list C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
htkmlfreader: reading MLF file C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf ... total 948 entries
...............................................................................................feature set 0: 252734 frames in 948 out of 948 utterances
label set 0: 129 classes
minibatchutterancesource: 948 utterances grouped into 3 chunks, av. chunk size: 316.0 utterances, 84244.7 frames
Starting from checkpoint. Load Network From File C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_cpu/models/cntkSpeech.dnn.2.
Printing Gradient Computation Node Order ...
CrossEntropyWithSoftmax[0, 0] = CrossEntropyWithSoftmax(labels[132, 256], HLast[0, 0])
HLast[0, 0] = Plus(W2*H1[0, 0], B2[132, 1])
B2[132, 1] = LearnableParameter
W2*H1[0, 0] = Times(W2[132, 512], H2[0, 0])
H2[0, 0] = Sigmoid(W1*H1+B1[0, 0])
W1*H1+B1[0, 0] = Plus(W1*H1[0, 0], B1[512, 1])
B1[512, 1] = LearnableParameter
W1*H1[0, 0] = Times(W1[512, 512], H1[0, 0])
H1[0, 0] = Sigmoid(W0*features+B0[0, 0])
W0*features+B0[0, 0] = Plus(W0*features[0, 0], B0[512, 1])
B0[512, 1] = LearnableParameter
W0*features[0, 0] = Times(W0[512, 363], MVNormalizedFeatures[0, 0])
MVNormalizedFeatures[0, 0] = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
InvStdOfFeatures[363, 1] = InvStdDev(features[363, 256])
MeanOfFeatures[363, 1] = Mean(features[363, 256])
features[363, 256] = InputValue
W0[512, 363] = LearnableParameter
W1[512, 512] = LearnableParameter
W2[132, 512] = LearnableParameter
labels[132, 256] = InputValue
Validating node CrossEntropyWithSoftmax
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> CrossEntropyWithSoftmax = CrossEntropyWithSoftmax(labels[132, 256], HLast[132, 256])
Validating node ScaledLogLikelihood
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> labels = InputValue
Validating --> Prior = Mean(labels[132, 256])
Validating --> LogOfPrior = Log(Prior[132, 1])
Validating --> ScaledLogLikelihood = Minus(HLast[132, 256], LogOfPrior[132, 1])
Validating node EvalErrorPrediction
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> EvalErrorPrediction = ErrorPrediction(labels[132, 256], HLast[132, 256])
GetTrainCriterionNodes ...
GetEvalCriterionNodes ...
Validating node CrossEntropyWithSoftmax
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> CrossEntropyWithSoftmax = CrossEntropyWithSoftmax(labels[132, 256], HLast[132, 256])
No PreCompute nodes found, skipping PreCompute step
Set Max Temp Mem Size For Convolution Nodes to 0 samples.
Starting Epoch 3: learning rate per sample = 0.000098 momentum = 0.656119
minibatchiterator: epoch 2: frames [40960..61440] (first utterance at frame 40960) with 1 datapasses
requiredata: determined feature kind as 33-dimensional 'USER' with frame shift 10.0 ms
Validating node EvalErrorPrediction
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 1024])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 1024])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 1024], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 1024])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 1024], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 1024])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 1024])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 1024], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 1024])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 1024])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 1024], B2[132, 1])
Validating --> EvalErrorPrediction = ErrorPrediction(labels[132, 1024], HLast[132, 1024])
Epoch[ 3 of 3]-Minibatch[ 1- 10 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.86752820; EvalErr[0]PerSample = 0.52177733; TotalTime = 0.40600s; TotalTimePerSample = 0.03965ms; SamplesPerSecond = 25221
Epoch[ 3 of 3]-Minibatch[ 11- 20 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.87358737; EvalErr[0]PerSample = 0.51542968; TotalTime = 0.05538s; TotalTimePerSample = 0.00541ms; SamplesPerSecond = 184900
Finished Epoch[3]: [Training Set] TrainLossPerSample = 1.8705578; EvalErrPerSample = 0.5186035; Ave LearnRatePerSample = 9.765625146e-005; EpochTime=0.692077
COMPLETED

Просмотреть файл

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=== Running /cygdrive/c/Users/svcphil/workspace.vlivan/CNTK-Build-Windows/x64/release/cntk.exe configFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\QuickE2E\cntk.config RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data DeviceId=Auto
-------------------------------------------------------------------
Build info:
Built time: Aug 11 2015 16:18:17
Last modified date: Tue Aug 11 16:16:08 2015
Built by svcphil on dphaim-26-new
Build Path: C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\MachineLearning\CNTK\
CUDA_PATH: C:\Program Files\NVIDIA GPU Computing Toolkit\CUDA\v7.0
Build Branch: master
Build SHA1: 397cc7cc16c00b1c12864d331c0729fde7a1bde3
-------------------------------------------------------------------
running on dphaim-26-new at 2015/08/11 17:47:26
command line options:
configFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\QuickE2E\cntk.config RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data DeviceId=Auto
>>>>>>>>>>>>>>>>>>>> RAW CONFIG (VARIABLES NOT RESOLVED) >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=$DeviceId$
parallelTrain=false
speechTrain=[
action=train
modelPath=$RunDir$/models/cntkSpeech.dnn
deviceId=$DeviceId$
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=$DataDir$/glob_0000.mlf
labelMappingFile=$DataDir$/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG (VARIABLES NOT RESOLVED) <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> RAW CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=Auto
parallelTrain=false
speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> PROCESSED CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
configparameters: cntk.config:command=speechTrain
configparameters: cntk.config:DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
configparameters: cntk.config:deviceId=Auto
configparameters: cntk.config:parallelTrain=false
configparameters: cntk.config:precision=float
configparameters: cntk.config:RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu
configparameters: cntk.config:speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
<<<<<<<<<<<<<<<<<<<< PROCESSED CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
command: speechTrain
precision = float
LockDevice: Capture device 1 and lock it for exclusive use
LockDevice: Capture device 2 and lock it for exclusive use
LockDevice: Capture device 3 and lock it for exclusive use
LockDevice: Capture device 0 and lock it for exclusive use
LockDevice: Capture device 1 and lock it for exclusive use
SimpleNetworkBuilder Using GPU 1
reading script file glob_0000.scp ... 948 entries
trainlayer: OOV-exclusion code enabled, but no unigram specified to derive the word set from, so you won't get OOV exclusion
total 132 state names in state list C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
htkmlfreader: reading MLF file C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf ... total 948 entries
...............................................................................................feature set 0: 252734 frames in 948 out of 948 utterances
label set 0: 129 classes
minibatchutterancesource: 948 utterances grouped into 3 chunks, av. chunk size: 316.0 utterances, 84244.7 frames
GetTrainCriterionNodes ...
GetEvalCriterionNodes ...
Validating node CrossEntropyWithSoftmax
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 3])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 3])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 3], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 3])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 3], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 3])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 3])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 3], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 3])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 3])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 3], B2[132, 1])
Validating --> CrossEntropyWithSoftmax = CrossEntropyWithSoftmax(labels[132, 3], HLast[132, 3])
Found 3 PreCompute nodes
NodeName: InvStdOfFeatures
NodeName: MeanOfFeatures
NodeName: Prior
minibatchiterator: epoch 0: frames [0..252734] (first utterance at frame 0) with 1 datapasses
requiredata: determined feature kind as 33-dimensional 'USER' with frame shift 10.0 ms
Validating node InvStdOfFeatures
Validating --> features = InputValue
Validating --> InvStdOfFeatures = InvStdDev(features[363, 64])
Validating node MeanOfFeatures
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 64])
Validating node Prior
Validating --> labels = InputValue
Validating --> Prior = Mean(labels[132, 64])
Set Max Temp Mem Size For Convolution Nodes to 0 samples.
Starting Epoch 1: learning rate per sample = 0.015625 momentum = 0.900000
minibatchiterator: epoch 0: frames [0..20480] (first utterance at frame 0) with 1 datapasses
Validating node EvalErrorPrediction
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 64])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 64])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 64], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 64])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 64], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 64])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 64])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 64], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 64])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 64])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 64], B2[132, 1])
Validating --> EvalErrorPrediction = ErrorPrediction(labels[132, 64], HLast[132, 64])
Epoch[ 1 of 3]-Minibatch[ 1- 10 of 320]: SamplesSeen = 640; TrainLossPerSample = 4.45646143; EvalErr[0]PerSample = 0.92500001; TotalTime = 0.03190s; TotalTimePerSample = 0.04985ms; SamplesPerSecond = 20061
Epoch[ 1 of 3]-Minibatch[ 11- 20 of 320]: SamplesSeen = 640; TrainLossPerSample = 4.22315693; EvalErr[0]PerSample = 0.90156251; TotalTime = 0.02454s; TotalTimePerSample = 0.03835ms; SamplesPerSecond = 26075
Epoch[ 1 of 3]-Minibatch[ 21- 30 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.95180511; EvalErr[0]PerSample = 0.84687501; TotalTime = 0.02438s; TotalTimePerSample = 0.03809ms; SamplesPerSecond = 26254
Epoch[ 1 of 3]-Minibatch[ 31- 40 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.94157934; EvalErr[0]PerSample = 0.89843750; TotalTime = 0.02445s; TotalTimePerSample = 0.03820ms; SamplesPerSecond = 26181
Epoch[ 1 of 3]-Minibatch[ 41- 50 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.85668945; EvalErr[0]PerSample = 0.91093749; TotalTime = 0.02429s; TotalTimePerSample = 0.03795ms; SamplesPerSecond = 26352
Epoch[ 1 of 3]-Minibatch[ 51- 60 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.72866368; EvalErr[0]PerSample = 0.89531249; TotalTime = 0.02445s; TotalTimePerSample = 0.03820ms; SamplesPerSecond = 26178
Epoch[ 1 of 3]-Minibatch[ 61- 70 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.51809072; EvalErr[0]PerSample = 0.82968748; TotalTime = 0.02423s; TotalTimePerSample = 0.03786ms; SamplesPerSecond = 26415
Epoch[ 1 of 3]-Minibatch[ 71- 80 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.48454905; EvalErr[0]PerSample = 0.80781251; TotalTime = 0.02249s; TotalTimePerSample = 0.03514ms; SamplesPerSecond = 28457
Epoch[ 1 of 3]-Minibatch[ 81- 90 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.33829641; EvalErr[0]PerSample = 0.76875001; TotalTime = 0.02169s; TotalTimePerSample = 0.03390ms; SamplesPerSecond = 29501
Epoch[ 1 of 3]-Minibatch[ 91- 100 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.50167227; EvalErr[0]PerSample = 0.79843748; TotalTime = 0.02178s; TotalTimePerSample = 0.03403ms; SamplesPerSecond = 29386
WARNING: The same matrix with dim [1, 1] has been transferred between different devices for 20 times.
Epoch[ 1 of 3]-Minibatch[ 101- 110 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.22861624; EvalErr[0]PerSample = 0.80000001; TotalTime = 0.02166s; TotalTimePerSample = 0.03385ms; SamplesPerSecond = 29546
Epoch[ 1 of 3]-Minibatch[ 111- 120 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.32616878; EvalErr[0]PerSample = 0.79062498; TotalTime = 0.02063s; TotalTimePerSample = 0.03224ms; SamplesPerSecond = 31018
Epoch[ 1 of 3]-Minibatch[ 121- 130 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.16897583; EvalErr[0]PerSample = 0.77968752; TotalTime = 0.01950s; TotalTimePerSample = 0.03048ms; SamplesPerSecond = 32813
Epoch[ 1 of 3]-Minibatch[ 131- 140 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.08891916; EvalErr[0]PerSample = 0.77656251; TotalTime = 0.01961s; TotalTimePerSample = 0.03063ms; SamplesPerSecond = 32644
Epoch[ 1 of 3]-Minibatch[ 141- 150 of 320]: SamplesSeen = 640; TrainLossPerSample = 3.06004953; EvalErr[0]PerSample = 0.72968751; TotalTime = 0.01950s; TotalTimePerSample = 0.03046ms; SamplesPerSecond = 32825
Epoch[ 1 of 3]-Minibatch[ 151- 160 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.91128540; EvalErr[0]PerSample = 0.69531250; TotalTime = 0.01965s; TotalTimePerSample = 0.03070ms; SamplesPerSecond = 32571
Epoch[ 1 of 3]-Minibatch[ 161- 170 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.90172124; EvalErr[0]PerSample = 0.72968751; TotalTime = 0.01828s; TotalTimePerSample = 0.02857ms; SamplesPerSecond = 35003
Epoch[ 1 of 3]-Minibatch[ 171- 180 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.73261714; EvalErr[0]PerSample = 0.65312499; TotalTime = 0.01799s; TotalTimePerSample = 0.02811ms; SamplesPerSecond = 35569
Epoch[ 1 of 3]-Minibatch[ 181- 190 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.66515493; EvalErr[0]PerSample = 0.68437499; TotalTime = 0.01789s; TotalTimePerSample = 0.02796ms; SamplesPerSecond = 35766
Epoch[ 1 of 3]-Minibatch[ 191- 200 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.67383432; EvalErr[0]PerSample = 0.66406250; TotalTime = 0.01792s; TotalTimePerSample = 0.02800ms; SamplesPerSecond = 35708
Epoch[ 1 of 3]-Minibatch[ 201- 210 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.52869272; EvalErr[0]PerSample = 0.63593751; TotalTime = 0.01805s; TotalTimePerSample = 0.02821ms; SamplesPerSecond = 35451
Epoch[ 1 of 3]-Minibatch[ 211- 220 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.60032344; EvalErr[0]PerSample = 0.66718751; TotalTime = 0.01696s; TotalTimePerSample = 0.02650ms; SamplesPerSecond = 37738
Epoch[ 1 of 3]-Minibatch[ 221- 230 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.51134038; EvalErr[0]PerSample = 0.64843750; TotalTime = 0.01658s; TotalTimePerSample = 0.02591ms; SamplesPerSecond = 38598
Epoch[ 1 of 3]-Minibatch[ 231- 240 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.45362544; EvalErr[0]PerSample = 0.63749999; TotalTime = 0.01663s; TotalTimePerSample = 0.02598ms; SamplesPerSecond = 38491
Epoch[ 1 of 3]-Minibatch[ 241- 250 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.41640615; EvalErr[0]PerSample = 0.61562502; TotalTime = 0.01670s; TotalTimePerSample = 0.02610ms; SamplesPerSecond = 38321
Epoch[ 1 of 3]-Minibatch[ 251- 260 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.39745474; EvalErr[0]PerSample = 0.62812501; TotalTime = 0.01672s; TotalTimePerSample = 0.02612ms; SamplesPerSecond = 38279
Epoch[ 1 of 3]-Minibatch[ 261- 270 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.16415405; EvalErr[0]PerSample = 0.56718749; TotalTime = 0.01621s; TotalTimePerSample = 0.02533ms; SamplesPerSecond = 39481
Epoch[ 1 of 3]-Minibatch[ 271- 280 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.30347300; EvalErr[0]PerSample = 0.63593751; TotalTime = 0.01583s; TotalTimePerSample = 0.02474ms; SamplesPerSecond = 40427
Epoch[ 1 of 3]-Minibatch[ 281- 290 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.24398804; EvalErr[0]PerSample = 0.60937500; TotalTime = 0.01579s; TotalTimePerSample = 0.02467ms; SamplesPerSecond = 40542
Epoch[ 1 of 3]-Minibatch[ 291- 300 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.15322256; EvalErr[0]PerSample = 0.57968748; TotalTime = 0.01582s; TotalTimePerSample = 0.02472ms; SamplesPerSecond = 40447
Epoch[ 1 of 3]-Minibatch[ 301- 310 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.21664429; EvalErr[0]PerSample = 0.59531248; TotalTime = 0.01570s; TotalTimePerSample = 0.02453ms; SamplesPerSecond = 40761
Epoch[ 1 of 3]-Minibatch[ 311- 320 of 320]: SamplesSeen = 640; TrainLossPerSample = 2.25246572; EvalErr[0]PerSample = 0.60156250; TotalTime = 0.01556s; TotalTimePerSample = 0.02431ms; SamplesPerSecond = 41139
Finished Epoch[1]: [Training Set] TrainLossPerSample = 3.0000031; EvalErrPerSample = 0.72836918; Ave LearnRatePerSample = 0.015625; EpochTime=0.657568
Starting Epoch 2: learning rate per sample = 0.001953 momentum = 0.656119
minibatchiterator: epoch 1: frames [20480..40960] (first utterance at frame 20480) with 1 datapasses
Epoch[ 2 of 3]-Minibatch[ 1- 10 of 80]: SamplesSeen = 2560; TrainLossPerSample = 2.08151960; EvalErr[0]PerSample = 0.55859375; TotalTime = 0.03143s; TotalTimePerSample = 0.01228ms; SamplesPerSecond = 81456
Epoch[ 2 of 3]-Minibatch[ 11- 20 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.98395634; EvalErr[0]PerSample = 0.54257810; TotalTime = 0.02295s; TotalTimePerSample = 0.00896ms; SamplesPerSecond = 111561
Epoch[ 2 of 3]-Minibatch[ 21- 30 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.98575521; EvalErr[0]PerSample = 0.54492188; TotalTime = 0.02287s; TotalTimePerSample = 0.00893ms; SamplesPerSecond = 111951
Epoch[ 2 of 3]-Minibatch[ 31- 40 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.90484965; EvalErr[0]PerSample = 0.53164065; TotalTime = 0.02284s; TotalTimePerSample = 0.00892ms; SamplesPerSecond = 112069
Epoch[ 2 of 3]-Minibatch[ 41- 50 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.88324130; EvalErr[0]PerSample = 0.52539063; TotalTime = 0.02277s; TotalTimePerSample = 0.00889ms; SamplesPerSecond = 112448
Epoch[ 2 of 3]-Minibatch[ 51- 60 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.89109266; EvalErr[0]PerSample = 0.53359377; TotalTime = 0.02287s; TotalTimePerSample = 0.00894ms; SamplesPerSecond = 111917
Epoch[ 2 of 3]-Minibatch[ 61- 70 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.89496076; EvalErr[0]PerSample = 0.52890623; TotalTime = 0.02279s; TotalTimePerSample = 0.00890ms; SamplesPerSecond = 112325
Epoch[ 2 of 3]-Minibatch[ 71- 80 of 80]: SamplesSeen = 2560; TrainLossPerSample = 1.85944366; EvalErr[0]PerSample = 0.52265626; TotalTime = 0.02265s; TotalTimePerSample = 0.00885ms; SamplesPerSecond = 113044
Finished Epoch[2]: [Training Set] TrainLossPerSample = 1.9356024; EvalErrPerSample = 0.53603518; Ave LearnRatePerSample = 0.001953125; EpochTime=0.192318
Starting Epoch 3: learning rate per sample = 0.000098 momentum = 0.656119
minibatchiterator: epoch 2: frames [40960..61440] (first utterance at frame 40960) with 1 datapasses
Epoch[ 3 of 3]-Minibatch[ 1- 10 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.86752820; EvalErr[0]PerSample = 0.52177733; TotalTime = 0.08080s; TotalTimePerSample = 0.00789ms; SamplesPerSecond = 126735
Epoch[ 3 of 3]-Minibatch[ 11- 20 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.87358737; EvalErr[0]PerSample = 0.51542968; TotalTime = 0.05544s; TotalTimePerSample = 0.00541ms; SamplesPerSecond = 184694
Finished Epoch[3]: [Training Set] TrainLossPerSample = 1.8705578; EvalErrPerSample = 0.5186035; Ave LearnRatePerSample = 9.765625146e-005; EpochTime=0.139063
COMPLETED
=== Deleting last epoch data
==== Re-running from checkpoint
-------------------------------------------------------------------
Build info:
Built time: Aug 11 2015 16:18:17
Last modified date: Tue Aug 11 16:16:08 2015
Built by svcphil on dphaim-26-new
Build Path: C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\MachineLearning\CNTK\
CUDA_PATH: C:\Program Files\NVIDIA GPU Computing Toolkit\CUDA\v7.0
Build Branch: master
Build SHA1: 397cc7cc16c00b1c12864d331c0729fde7a1bde3
-------------------------------------------------------------------
running on dphaim-26-new at 2015/08/11 17:47:34
command line options:
configFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\QuickE2E\cntk.config RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data DeviceId=Auto
>>>>>>>>>>>>>>>>>>>> RAW CONFIG (VARIABLES NOT RESOLVED) >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=$DeviceId$
parallelTrain=false
speechTrain=[
action=train
modelPath=$RunDir$/models/cntkSpeech.dnn
deviceId=$DeviceId$
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=$DataDir$/glob_0000.mlf
labelMappingFile=$DataDir$/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG (VARIABLES NOT RESOLVED) <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> RAW CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
precision=float
command=speechTrain
deviceId=Auto
parallelTrain=false
speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu
DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
DeviceId=Auto
<<<<<<<<<<<<<<<<<<<< RAW CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
>>>>>>>>>>>>>>>>>>>> PROCESSED CONFIG WITH ALL VARIABLES RESOLVED >>>>>>>>>>>>>>>>>>>>
configparameters: cntk.config:command=speechTrain
configparameters: cntk.config:DataDir=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data
configparameters: cntk.config:deviceId=Auto
configparameters: cntk.config:parallelTrain=false
configparameters: cntk.config:precision=float
configparameters: cntk.config:RunDir=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu
configparameters: cntk.config:speechTrain=[
action=train
modelPath=C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu/models/cntkSpeech.dnn
deviceId=Auto
traceLevel=1
SimpleNetworkBuilder=[
layerSizes=363:512:512:132
trainingCriterion=CrossEntropyWithSoftmax
evalCriterion=ErrorPrediction
layerTypes=Sigmoid
initValueScale=1.0
applyMeanVarNorm=true
uniformInit=true
needPrior=true
]
SGD=[
epochSize=20480
minibatchSize=64:256:1024:
learningRatesPerMB=1.0:0.5:0.1
numMBsToShowResult=10
momentumPerMB=0.9:0.656119
dropoutRate=0.0
maxEpochs=3
keepCheckPointFiles=true
AutoAdjust=[
reduceLearnRateIfImproveLessThan=0
loadBestModel=true
increaseLearnRateIfImproveMoreThan=1000000000
learnRateDecreaseFactor=0.5
learnRateIncreaseFactor=1.382
autoAdjustLR=AdjustAfterEpoch
]
clippingThresholdPerSample=1#INF
]
reader=[
readerType=HTKMLFReader
readMethod=blockRandomize
miniBatchMode=Partial
randomize=Auto
verbosity=0
features=[
dim=363
type=Real
scpFile=glob_0000.scp
]
labels=[
mlfFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf
labelMappingFile=C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
labelDim=132
labelType=Category
]
]
]
<<<<<<<<<<<<<<<<<<<< PROCESSED CONFIG WITH ALL VARIABLES RESOLVED <<<<<<<<<<<<<<<<<<<<
command: speechTrain
precision = float
LockDevice: Capture device 1 and lock it for exclusive use
LockDevice: Capture device 2 and lock it for exclusive use
LockDevice: Capture device 3 and lock it for exclusive use
LockDevice: Capture device 0 and lock it for exclusive use
LockDevice: Capture device 1 and lock it for exclusive use
SimpleNetworkBuilder Using GPU 1
reading script file glob_0000.scp ... 948 entries
trainlayer: OOV-exclusion code enabled, but no unigram specified to derive the word set from, so you won't get OOV exclusion
total 132 state names in state list C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/state.list
htkmlfreader: reading MLF file C:\Users\svcphil\workspace.vlivan\CNTK-Build-Windows\Tests\Speech\Data/glob_0000.mlf ... total 948 entries
...............................................................................................feature set 0: 252734 frames in 948 out of 948 utterances
label set 0: 129 classes
minibatchutterancesource: 948 utterances grouped into 3 chunks, av. chunk size: 316.0 utterances, 84244.7 frames
Starting from checkpoint. Load Network From File C:\Users\svcphil\AppData\Local\Temp\2\cntk-test-20150811174551.851046\Speech_QuickE2E@release_gpu/models/cntkSpeech.dnn.2.
Printing Gradient Computation Node Order ...
CrossEntropyWithSoftmax[0, 0] = CrossEntropyWithSoftmax(labels[132, 256], HLast[0, 0])
HLast[0, 0] = Plus(W2*H1[0, 0], B2[132, 1])
B2[132, 1] = LearnableParameter
W2*H1[0, 0] = Times(W2[132, 512], H2[0, 0])
H2[0, 0] = Sigmoid(W1*H1+B1[0, 0])
W1*H1+B1[0, 0] = Plus(W1*H1[0, 0], B1[512, 1])
B1[512, 1] = LearnableParameter
W1*H1[0, 0] = Times(W1[512, 512], H1[0, 0])
H1[0, 0] = Sigmoid(W0*features+B0[0, 0])
W0*features+B0[0, 0] = Plus(W0*features[0, 0], B0[512, 1])
B0[512, 1] = LearnableParameter
W0*features[0, 0] = Times(W0[512, 363], MVNormalizedFeatures[0, 0])
MVNormalizedFeatures[0, 0] = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
InvStdOfFeatures[363, 1] = InvStdDev(features[363, 256])
MeanOfFeatures[363, 1] = Mean(features[363, 256])
features[363, 256] = InputValue
W0[512, 363] = LearnableParameter
W1[512, 512] = LearnableParameter
W2[132, 512] = LearnableParameter
labels[132, 256] = InputValue
Validating node CrossEntropyWithSoftmax
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> CrossEntropyWithSoftmax = CrossEntropyWithSoftmax(labels[132, 256], HLast[132, 256])
Validating node ScaledLogLikelihood
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> labels = InputValue
Validating --> Prior = Mean(labels[132, 256])
Validating --> LogOfPrior = Log(Prior[132, 1])
Validating --> ScaledLogLikelihood = Minus(HLast[132, 256], LogOfPrior[132, 1])
Validating node EvalErrorPrediction
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> EvalErrorPrediction = ErrorPrediction(labels[132, 256], HLast[132, 256])
GetTrainCriterionNodes ...
GetEvalCriterionNodes ...
Validating node CrossEntropyWithSoftmax
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 256])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 256])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 256], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 256])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 256], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 256])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 256])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 256], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 256])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 256])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 256], B2[132, 1])
Validating --> CrossEntropyWithSoftmax = CrossEntropyWithSoftmax(labels[132, 256], HLast[132, 256])
No PreCompute nodes found, skipping PreCompute step
Set Max Temp Mem Size For Convolution Nodes to 0 samples.
Starting Epoch 3: learning rate per sample = 0.000098 momentum = 0.656119
minibatchiterator: epoch 2: frames [40960..61440] (first utterance at frame 40960) with 1 datapasses
requiredata: determined feature kind as 33-dimensional 'USER' with frame shift 10.0 ms
Validating node EvalErrorPrediction
Validating --> labels = InputValue
Validating --> W2 = LearnableParameter
Validating --> W1 = LearnableParameter
Validating --> W0 = LearnableParameter
Validating --> features = InputValue
Validating --> MeanOfFeatures = Mean(features[363, 1024])
Validating --> InvStdOfFeatures = InvStdDev(features[363, 1024])
Validating --> MVNormalizedFeatures = PerDimMeanVarNormalization(features[363, 1024], MeanOfFeatures[363, 1], InvStdOfFeatures[363, 1])
Validating --> W0*features = Times(W0[512, 363], MVNormalizedFeatures[363, 1024])
Validating --> B0 = LearnableParameter
Validating --> W0*features+B0 = Plus(W0*features[512, 1024], B0[512, 1])
Validating --> H1 = Sigmoid(W0*features+B0[512, 1024])
Validating --> W1*H1 = Times(W1[512, 512], H1[512, 1024])
Validating --> B1 = LearnableParameter
Validating --> W1*H1+B1 = Plus(W1*H1[512, 1024], B1[512, 1])
Validating --> H2 = Sigmoid(W1*H1+B1[512, 1024])
Validating --> W2*H1 = Times(W2[132, 512], H2[512, 1024])
Validating --> B2 = LearnableParameter
Validating --> HLast = Plus(W2*H1[132, 1024], B2[132, 1])
Validating --> EvalErrorPrediction = ErrorPrediction(labels[132, 1024], HLast[132, 1024])
Epoch[ 3 of 3]-Minibatch[ 1- 10 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.86752820; EvalErr[0]PerSample = 0.52177733; TotalTime = 0.42093s; TotalTimePerSample = 0.04111ms; SamplesPerSecond = 24327
Epoch[ 3 of 3]-Minibatch[ 11- 20 of 20]: SamplesSeen = 10240; TrainLossPerSample = 1.87358737; EvalErr[0]PerSample = 0.51542968; TotalTime = 0.05521s; TotalTimePerSample = 0.00539ms; SamplesPerSecond = 185480
Finished Epoch[3]: [Training Set] TrainLossPerSample = 1.8705578; EvalErrPerSample = 0.5186035; Ave LearnRatePerSample = 9.765625146e-005; EpochTime=0.690137
COMPLETED

Просмотреть файл

@ -1,17 +1,28 @@
#!/bin/bash
CNTK_BINARY=$TEST_BUILD_LOCATION/x86_64.gpu.$TEST_FLAVOR.acml/cntk
if [ "$TEST_DEVICE" == "CPU" ]; then
CNTK_DEVICE_ID=-1
else
CNTK_DEVICE_ID=Auto
fi
CNTK_ARGS="configFile=$TEST_DIR/cntk.config RunDir=$TEST_RUN_DIR DataDir=$TEST_DATA_DIR DeviceId=$CNTK_DEVICE_ID"
configFile=$TEST_DIR/cntk.config
RunDir=$TEST_RUN_DIR
DataDir=$TEST_DATA_DIR
if [ "$OS" == "Windows_NT" ]; then
# When running on cygwin translating /cygdrive/xxx paths to proper windows paths:
configFile=$(cygpath -aw $configFile)
RunDir=$(cygpath -aw $RunDir)
DataDir=$(cygpath -aw $DataDir)
fi
CNTK_ARGS="configFile=$configFile RunDir=$RunDir DataDir=$DataDir DeviceId=$CNTK_DEVICE_ID"
MODELS_DIR=$TEST_RUN_DIR/models
[ -d $MODELS_DIR ] && rm -rf $MODELS_DIR
mkdir -p $MODELS_DIR || exit $?
echo === Running $CNTK_BINARY $CNTK_ARGS
$CNTK_BINARY $CNTK_ARGS || exit $?
echo === Running $TEST_CNTK_BINARY $CNTK_ARGS
$TEST_CNTK_BINARY $CNTK_ARGS || exit $?
echo === Deleting last epoch data
rm $TEST_RUN_DIR/models/*.dnn
echo ==== Re-running from checkpoint
$CNTK_BINARY $CNTK_ARGS || exit $?
$TEST_CNTK_BINARY $CNTK_ARGS || exit $?

Просмотреть файл

@ -15,7 +15,7 @@
#
# Each test directory has a following components:
# - testcases.yml - main test confuguration file, whcih defines all test cases
# - run-test - (run-test) script
# - run-test - (run-test) script
# - baseline*.txt - baseline files whith a captured expected output of run-test script
#
# ----- testcases.yml format -------
@ -52,10 +52,14 @@
# ---- Baseline files ----
# Order of searching baseline files, depends on the current mode for a given test:
#
# 1. baseline.<flavor>.<device>.txt
# 2. baseline.<flavor>.txt
# 3. baseline.<device>.txt
# 4. baseline.txt
# 1. baseline.<os>.<flavor>.<device>.txt
# 2. baseline.<os>.<flavor>.txt
# 3. baseline.<os>.<device>.txt
# 4. baseline.<os>.txt
# 5. baseline.<flavor>.<device>.txt
# 6. baseline.<flavor>.txt
# 7. baseline.<device>.txt
# 8. baseline.txt
# where <flavor> = { debug | release }
# <device> = { cpu | gpu }
#
@ -79,6 +83,7 @@
import sys, os, argparse, traceback, yaml, subprocess, random, re, time
thisDir = os.path.dirname(os.path.realpath(__file__))
windows = os.getenv("OS")=="Windows_NT"
# This class encapsulates an instance of the test
class Test:
@ -169,6 +174,10 @@ class Test:
os.environ["TEST_FLAVOR"] = flavor
os.environ["TEST_DEVICE"] = device
os.environ["TEST_BUILD_LOCATION"] = args.build_location
if windows:
os.environ["TEST_CNTK_BINARY"] = os.path.join(args.build_location, flavor, "cntk.exe")
else:
os.environ["TEST_CNTK_BINARY"] = os.path.join(args.build_location, flavor, "bin", "cntk")
os.environ["TEST_DIR"] = self.testDir
os.environ["TEST_DATA_DIR"] = self.dataDir
os.environ["TEST_RUN_DIR"] = runDir
@ -237,17 +246,22 @@ class Test:
return result
# Finds a location of a baseline file by probing different names in the following order:
# baseline.$os.$flavor.$device.txt
# baseline.$os.$flavor.txt
# baseline.$os.$device.txt
# baseline.$os.txt
# baseline.$flavor.$device.txt
# baseline.$flavor.txt
# baseline.$device.txt
# baseline.txt
def findBaselineFile(self, flavor, device):
for f in ["." + flavor.lower(), ""]:
for d in ["." + device.lower(), ""]:
candidateName = "baseline" + f + d + ".txt";
fullPath = os.path.join(self.testDir, candidateName)
if os.path.isfile(fullPath):
return fullPath
for o in ["." + ("windows" if windows else "linux"), ""]:
for f in ["." + flavor.lower(), ""]:
for d in ["." + device.lower(), ""]:
candidateName = "baseline" + o + f + d + ".txt"
fullPath = os.path.join(self.testDir, candidateName)
if os.path.isfile(fullPath):
return fullPath
return None
# This class encapsulates one testcase (in testcases.yml file)
@ -521,13 +535,13 @@ runSubparser.add_argument("test", nargs="*",
help="optional test name(s) to run, specified as Suite/TestName. "
"Use list command to list available tests. "
"If not specified then all tests will be run.")
#TODO: port paths to Windows
defaultBuildLocation=os.path.realpath(os.path.join(thisDir, "..", "bin"))
defaultBuildLocation=os.path.realpath(os.path.join(thisDir, "..", "x64" if windows else "build"))
runSubparser.add_argument("-b", "--build-location", default=defaultBuildLocation, help="location of the CNTK build to run")
runSubparser.add_argument("-d", "--device", help="cpu|gpu - run on a specific device")
runSubparser.add_argument("-f", "--flavor", help="release|debug - run only a specific flavor")
#TODO: port paths to Windows
defaultRunDir=os.path.join("/tmp", "cntk-test-{0}.{1}".format(time.strftime("%Y%m%d%H%M%S"), random.randint(0,1000000)))
tmpDir = os.getenv("TEMP") if windows else "/tmp"
defaultRunDir=os.path.join(tmpDir, "cntk-test-{0}.{1}".format(time.strftime("%Y%m%d%H%M%S"), random.randint(0,1000000)))
runSubparser.add_argument("-r", "--run-dir", default=defaultRunDir, help="directory where to store test output, default: a random dir within /tmp")
runSubparser.add_argument("--update-baseline", action='store_true', help="update baseline file(s) instead of matching them")
runSubparser.add_argument("-v", "--verbose", action='store_true', help="verbose output - dump all output of test script")

412
configure поставляемый Executable file
Просмотреть файл

@ -0,0 +1,412 @@
#!/bin/bash
configure=$0
build_top=$PWD
have_cuda=no
cuda_path=
cuda_check=include/cuda.h
enable_cuda=
have_acml=no
acml_path=
acml_check=include/acml.h
have_mkl=no
mkl_path=
mkl_check=mkl/include/mkl.h
have_kaldi=no
kaldi_path=
kaldi_check=src/kaldi.mk
have_buildtype=no
buildtype=
default_buildtype=release
have_gdk=no
gdk_path=
gdk_check=include/nvidia/gdk/nvml.h
mathlib=
# List from best to worst choice
default_path_list="/usr /usr/local /opt /opt/local"
# List from best to worst choice
default_acmls="acml5.3.1/ifort64"
default_mkls=""
# NOTE: Will get compilation errors with cuda-6.0
default_cudas="cuda-7.5 cuda-7.0 cuda-6.5"
default_kaldis="kaldi-trunk"
default_gdks="."
function default_paths ()
{
echo $build_top $HOME $default_path_list
}
# $1 is directory
# $2 is file that must be present
function check_dir ()
{
if test -e $1/$2
then
echo yes
else
echo no
fi
}
# $1 is the list of tails to search, ordered by preference
# $2 is some file that must exist in $1
function find_dir ()
{
for tail in $1
do
for head in $(default_paths)
do
if test x$(check_dir "$head/$tail" $2) = xyes
then
echo $head/$tail
return 0
fi
done
done
}
function find_acml ()
{
find_dir "$default_acmls" "$acml_check"
}
function find_mkl ()
{
find_dir "$default_mkls" "$mkl_check"
}
function find_cuda ()
{
find_dir "$default_cudas" "$cuda_check"
}
function find_kaldi ()
{
find_dir "$default_kaldis" "$kaldi_check"
}
function find_gdk ()
{
find_dir "$default_gdks" "$gdk_check"
}
function is_hardlinked ()
{
r=no
if test -e $1 && test -e $2
then
r=yes
[ "`stat -c '%i' $1`" != "`stat -c '%i' $2`" ] && r=no
fi
echo $r
}
function default_use_cuda ()
{
if test x$(find_cuda) = x || test x$(find_gdk) = x
then
echo no
else
echo yes
fi
}
enable_cuda=$(default_use_cuda)
function show_default ()
{
if test x$1 = x
then
echo "(no default)"
else
echo "(default $1)"
fi
}
function show_help ()
{
echo "Usage: configure [options]"
echo "Options:"
echo " -h|--help this help"
echo " --with-build-top=directory build directory $(show_default $build_top)"
echo " --add directory add directory to library search path"
echo " --cuda[=(yes|no)] use cuda GPU $(show_default $(default_use_cuda))"
echo " --with-cuda[=directory] $(show_default $(find_cuda))"
echo " --with-gdk[=directory] $(show_default $(find_gdk))"
echo " --with-acml[=directory] $(show_default $(find_acml))"
echo " --with-mkl[=directory] $(show_default $(find_mkl))"
echo " --with-buildtype=(debug|release) $(show_default $default_buildtype)"
echo " --with-kaldi[=directory] $(show_default $(find_kaldi))"
echo "Libraries search path:"
for head in $(default_paths)
do
echo " $head"
done
}
while [[ $# > 0 ]]
do
key="$1"
case $key in
*=?*) optarg=`expr "X$key" : '[^=]*=\(.*\)'` ;;
*=) optarg= ;;
*) optarg= ;;
esac
case $key in
-h|--help)
show_help
exit 1
;;
--with-build-top*)
if test x$optarg != x
then
build_top=$optarg
mkdir -p $build_top
fi
;;
--add*)
if test x$optarg = x
then
shift ; optarg=$1
fi
default_path_list="$optarg $default_path_list"
;;
--cuda)
if test x$optarg = yes || test x$optarg = no
then
enable_cuda=$optarg
else
echo "Invalid value for --cuda"
show_help
exit
fi
;;
--with-cuda*)
have_cuda=yes
enable_cuda=yes
if test x$optarg = x
then
cuda_path=$(find_cuda)
if test x$cuda_path = x
then
echo "Cannot find cuda directory."
echo "Please specify a value for --with-cuda"
exit 1
fi
else
if test $(check_dir $optarg $cuda_check) = yes
then
cuda_path=$optarg
else
echo "Invalid cuda directory $optarg"
exit 1
fi
fi
;;
--with-gdk*)
have_gdk=yes
if test x$optarg = x
then
gdk_path=$(find_gdk)
if test x$gdk_path = x
then
echo "Cannot find gdk directory."
echo "Please specify a value for --with-gdk"
exit 1
fi
else
if test $(check_dir $optarg $gdk_check) = yes
then
gdk_path=$optarg
else
echo "Invalid gdk directory $optarg"
exit 1
fi
fi
;;
--with-acml*)
have_acml=yes
mathlib=acml
if test x$optarg = x
then
acml_path=$(find_acml)
if test x$acml_path = x
then
echo "Cannot fine acml directory"
echo "Please specify a value for --with-acml"
exit 1
fi
else
if test $(check_dir $optarg $acml_check) = yes
then
acml_path=$optarg
else
echo "Invalid acml directory $optarg"
exit 1
fi
fi
;;
--with-mkl*)
have_mkl=yes
mathlib=mkl
if test x$optarg = x
then
mkl_path=$(find_mkl)
if test x$mkl_path = x
then
echo "Cannot fine mkl directory"
echo "Please specify a value for --with-mkl"
exit 1
fi
else
if test $(check_dir $optarg $mkl_check) = yes
then
mkl_path=$optarg
else
echo "Invalid mkl directory $optarg"
exit 1
fi
fi
;;
--with-buildtype*)
have_buildtype=yes
case $optarg in
debug|release)
buildtype=$optarg
;;
*)
echo Invalid buildtype $optarg
echo Must be debug or release
exit 1
esac
;;
--with-kaldi*)
have_kaldi=yes
if test x$optarg = x
then
kaldi_path=$(find_kaldi)
if test x$kaldi_path = x
then
echo "Cannot find kaldi directory"
echo "Please specify a value for --with-kaldi"
exit 1
fi
else
if test $(check_dir $optarg $kaldi_check)
then
kaldi_path=$optarg
else
echo "Invalid kaldi directory $optarg"
exit 1
fi
fi
;;
*)
echo Invalid option $key
show_help
exit 1
esac
shift
done
if test x$buildtype = x
then
buildtype=$default_buildtype
echo Defaulting to --with-buildtype=release
fi
# If no math library was specified, search for acml and then mkl
if test x$have_acml = xno && test x$have_mkl = xno
then
acml_path=$(find_acml)
if test x$acml_path = x
then
mkl_path=$(find_mkl)
if test x$mkl_path = x
then
echo "Cannot find a CPU math library."
echo "Please specify --with-acml or --with-mkl with a path."
exit 1
else
mathlib=mkl
fi
else
mathlib=acml
fi
fi
# If no cuda library specified, search for one
if test x$enable_cuda = xyes && test x$cuda_path = x
then
cuda_path=$(find_cuda)
if test x$cuda_path = x ; then
echo Cannot locate a cuda directory
echo GPU will be disabled
enable_cuda=no
else
echo Found cuda at $cuda_path
fi
fi
if test $enable_cuda = yes && test x$gdk_path = x
then
gdk_path=$(find_gdk)
if test x$gdk_path = x ; then
echo Cannot locate a gdk directory
echo GPU will be disabled
enable_cuda=no
else
echo Found gdk at $gdk_path
fi
fi
config=$build_top/Config.make
echo Generating $config
echo "#Configuration file for cntk" > $config
echo BUILDTYPE=$buildtype >> $config
echo MATHLIB=$mathlib >> $config
case $mathlib in
acml)
echo ACML_PATH=$acml_path >> $config
;;
mkl)
echo MKL_PATH=$mkl_path >> $config
;;
esac
if test $enable_cuda = yes ; then
echo CUDA_PATH=$cuda_path >> $config
echo GDK_PATH=$gdk_path >> $config
fi
if test x$kaldi_path != x ; then
echo KALDI_PATH=$kaldi_path >> $config
fi
# If we are not in the configure directory, generate a trampoline Makefile
makefile=$build_top/Makefile
if test $(is_hardlinked "$configure" "$build_top/configure") = no
then
echo Generating $makefile
realconf=`readlink -f $configure`
dir=`dirname $realconf`
echo "#Generate Makefile" > $makefile
echo dir=$dir >> $makefile
echo BUILD_TOP=$build_top >> $makefile
echo >> $makefile
echo all clean : >> $makefile
printf '\t$(MAKE) -C $(dir) BUILD_TOP=$(BUILD_TOP) $@\n' >> $makefile
fi
echo run
echo '>make -j all'
echo to build