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Cleanup in progress

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This commit is contained in:
Michael Marshall 2019-11-01 15:35:07 +00:00
parent 5c54f27ac1
commit 45d4cf0971
5 changed files with 209 additions and 1131 deletions
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277
Hadrons/Distil.hpp
View File

@ -38,39 +38,6 @@
#include <Hadrons/A2AVectors.hpp> #include <Hadrons/A2AVectors.hpp>
#include <Hadrons/DilutedNoise.hpp> #include <Hadrons/DilutedNoise.hpp>
/******************************************************************************
A consistent set of cross-platform methods for big endian <-> host byte ordering
I imagine this exists already?
This can be removed once the (deprecated) NamedTensor::ReadBinary & WriteBinary methods are deleted
******************************************************************************/
#if defined(__linux__)
# include <endian.h>
#elif defined(__FreeBSD__) || defined(__NetBSD__)
# include <sys/endian.h>
#elif defined(__OpenBSD__)
# include <sys/types.h>
# define be16toh(x) betoh16(x)
# define be32toh(x) betoh32(x)
# define be64toh(x) betoh64(x)
#elif defined(__APPLE__)
#include <libkern/OSByteOrder.h>
#define htobe16(x) OSSwapHostToBigInt16(x)
#define htole16(x) OSSwapHostToLittleInt16(x)
#define be16toh(x) OSSwapBigToHostInt16(x)
#define le16toh(x) OSSwapLittleToHostInt16(x)
#define htobe32(x) OSSwapHostToBigInt32(x)
#define htole32(x) OSSwapHostToLittleInt32(x)
#define be32toh(x) OSSwapBigToHostInt32(x)
#define le32toh(x) OSSwapLittleToHostInt32(x)
#define htobe64(x) OSSwapHostToBigInt64(x)
#define htole64(x) OSSwapHostToLittleInt64(x)
#define be64toh(x) OSSwapBigToHostInt64(x)
#define le64toh(x) OSSwapLittleToHostInt64(x)
#endif
/****************************************************************************** /******************************************************************************
This potentially belongs in CartesianCommunicator This potentially belongs in CartesianCommunicator
******************************************************************************/ ******************************************************************************/
@ -139,7 +106,7 @@ inline void SliceShare( GridBase * gridLowDim, GridBase * gridHighDim, void * Bu
*************************************************************************************/ *************************************************************************************/
template<typename Field, typename GaugeField=LatticeGaugeField> template<typename Field, typename GaugeField=LatticeGaugeField>
class LinOpPeardonNabla : public LinearOperatorBase<Field>, public LinearFunction<Field> { class Laplacian3D : public LinearOperatorBase<Field>, public LinearFunction<Field> {
typedef typename GaugeField::vector_type vCoeff_t; typedef typename GaugeField::vector_type vCoeff_t;
protected: // I don't really mind if _gf is messed with ... so make this public? protected: // I don't really mind if _gf is messed with ... so make this public?
//GaugeField & _gf; //GaugeField & _gf;
@ -147,7 +114,7 @@ protected: // I don't really mind if _gf is messed with ... so make this public?
std::vector<Lattice<iColourMatrix<vCoeff_t> > > U; std::vector<Lattice<iColourMatrix<vCoeff_t> > > U;
public: public:
// Construct this operator given a gauge field and the number of dimensions it should act on // Construct this operator given a gauge field and the number of dimensions it should act on
LinOpPeardonNabla( GaugeField& gf, int dimSpatial = Tdir ) : /*_gf(gf),*/ nd{dimSpatial} { Laplacian3D( GaugeField& gf, int dimSpatial = Tdir ) : /*_gf(gf),*/ nd{dimSpatial} {
assert(dimSpatial>=1); assert(dimSpatial>=1);
for( int mu = 0 ; mu < nd ; mu++ ) for( int mu = 0 ; mu < nd ; mu++ )
U.push_back(PeekIndex<LorentzIndex>(gf,mu)); U.push_back(PeekIndex<LorentzIndex>(gf,mu));
@ -178,12 +145,12 @@ public:
}; };
template<typename Field> template<typename Field>
class LinOpPeardonNablaHerm : public LinearFunction<Field> { class Laplacian3DHerm : public LinearFunction<Field> {
public: public:
OperatorFunction<Field> & _poly; OperatorFunction<Field> & _poly;
LinearOperatorBase<Field> &_Linop; LinearOperatorBase<Field> &_Linop;
LinOpPeardonNablaHerm(OperatorFunction<Field> & poly,LinearOperatorBase<Field>& linop) Laplacian3DHerm(OperatorFunction<Field> & poly,LinearOperatorBase<Field>& linop)
: _poly{poly}, _Linop{linop} {} : _poly{poly}, _Linop{linop} {}
void operator()(const Field& in, Field& out) { void operator()(const Field& in, Field& out) {
@ -244,12 +211,6 @@ const bool full_tdil{ TI == Nt }; \
const bool exact_distillation{ full_tdil && LI == nvec }; \ const bool exact_distillation{ full_tdil && LI == nvec }; \
const int Nt_inv{ full_tdil ? 1 : TI } const int Nt_inv{ full_tdil ? 1 : TI }
class BFieldIO: Serializable{
public:
using BaryonTensorSet = Eigen::Tensor<ComplexD, 6>;
GRID_SERIALIZABLE_CLASS_MEMBERS(BFieldIO, BaryonTensorSet, BField );
};
/****************************************************************************** /******************************************************************************
Default for distillation file operations. For now only used by NamedTensor Default for distillation file operations. For now only used by NamedTensor
******************************************************************************/ ******************************************************************************/
@ -268,9 +229,6 @@ static const char * FileExtension = ".dat";
NamedTensor object NamedTensor object
This is an Eigen::Tensor of type Scalar_ and rank NumIndices_ (row-major order) This is an Eigen::Tensor of type Scalar_ and rank NumIndices_ (row-major order)
They can be persisted to disk They can be persisted to disk
Scalar_ objects are assumed to be composite objects of size Endian_Scalar_Size.
(Disable big-endian by setting Endian_Scalar_Size=1).
NB: Endian_Scalar_Size will disappear when ReadBinary & WriteBinary retired
IndexNames contains one name for each index, and IndexNames are validated on load. IndexNames contains one name for each index, and IndexNames are validated on load.
WHAT TO SAVE / VALIDATE ON LOAD (Override to warn instead of assert on load) WHAT TO SAVE / VALIDATE ON LOAD (Override to warn instead of assert on load)
Ensemble string Ensemble string
@ -280,20 +238,18 @@ static const char * FileExtension = ".dat";
******************************************************************************/ ******************************************************************************/
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size_ = sizeof(Scalar_)> template<typename Scalar_, int NumIndices_>
class NamedTensor : Serializable class NamedTensor : Serializable
{ {
public: public:
using Scalar = Scalar_; using Scalar = Scalar_;
static constexpr int NumIndices = NumIndices_; static constexpr int NumIndices = NumIndices_;
static constexpr uint16_t Endian_Scalar_Size = Endian_Scalar_Size_;
using ET = Eigen::Tensor<Scalar_, NumIndices_, Eigen::RowMajor>; using ET = Eigen::Tensor<Scalar_, NumIndices_, Eigen::RowMajor>;
using Index = typename ET::Index; using Index = typename ET::Index;
GRID_SERIALIZABLE_CLASS_MEMBERS(NamedTensor GRID_SERIALIZABLE_CLASS_MEMBERS(NamedTensor
, ET, tensor , ET, tensor
, std::vector<std::string>, IndexNames , std::vector<std::string>, IndexNames
); );
public:
// Named tensors are intended to be a superset of Eigen tensor // Named tensors are intended to be a superset of Eigen tensor
inline operator ET&() { return tensor; } inline operator ET&() { return tensor; }
template<typename... IndexTypes> template<typename... IndexTypes>
@ -351,9 +307,6 @@ public:
// Read/Write in default format, i.e. HDF5 if present, else binary // Read/Write in default format, i.e. HDF5 if present, else binary
inline void read (const char * filename, const char * pszTag = nullptr); inline void read (const char * filename, const char * pszTag = nullptr);
inline void write(const char * filename, const char * pszTag = nullptr) const; inline void write(const char * filename, const char * pszTag = nullptr) const;
// Original I/O implementation. This will be removed when we're sure it's no longer needed
EIGEN_DEPRECATED inline void ReadBinary (const std::string filename); // To be removed
EIGEN_DEPRECATED inline void WriteBinary(const std::string filename); // To be removed
// Case insensitive compare of two strings // Case insensitive compare of two strings
// Pesumably this exists already? Where should this go? // Pesumably this exists already? Where should this go?
@ -375,218 +328,31 @@ public:
// Is this a named tensor // Is this a named tensor
template<typename T, typename V = void> struct is_named_tensor : public std::false_type {}; template<typename T, typename V = void> struct is_named_tensor : public std::false_type {};
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size_> struct is_named_tensor<NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size_>> : public std::true_type {}; template<typename Scalar_, int NumIndices_> struct is_named_tensor<NamedTensor<Scalar_, NumIndices_>> : public std::true_type {};
template<typename T> struct is_named_tensor<T, typename std::enable_if<std::is_base_of<NamedTensor<typename T::Scalar, T::NumIndices, T::Endian_Scalar_Size_>, T>::value>::type> : public std::true_type {}; template<typename T> struct is_named_tensor<T, typename std::enable_if<std::is_base_of<NamedTensor<typename T::Scalar, T::NumIndices>, T>::value>::type> : public std::true_type {};
/****************************************************************************** /******************************************************************************
PerambTensor object PerambTensor object
Endian_Scalar_Size can be removed once (deprecated) NamedTensor::ReadBinary & WriteBinary methods deleted
******************************************************************************/ ******************************************************************************/
//template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size = sizeof(Scalar_)> using PerambTensor = NamedTensor<SpinVector, 6>;
using PerambTensor = NamedTensor<SpinVector, 6, sizeof(Real)>;
static const std::array<std::string, 6> PerambIndexNames{"nT", "nVec", "LI", "nNoise", "nT_inv", "SI"}; static const std::array<std::string, 6> PerambIndexNames{"nT", "nVec", "LI", "nNoise", "nT_inv", "SI"};
/******************************************************************************
Save NamedTensor binary format (NB: On-disk format is Big Endian)
Assumes the Scalar_ objects are contiguous (no padding)
******************************************************************************/
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size>
void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::WriteBinary(const std::string filename) {
LOG(Message) << "Writing NamedTensor to \"" << filename << "\"" << std::endl;
std::ofstream w(filename, std::ios::binary);
// Enforce assumption that the scalar is composed of fundamental elements of size Endian_Scalar_Size
assert((Endian_Scalar_Size == 1 || Endian_Scalar_Size == 2 || Endian_Scalar_Size == 4 || Endian_Scalar_Size == 8 )
&& "NamedTensor error: Endian_Scalar_Size should be 1, 2, 4 or 8");
assert((sizeof(Scalar_) % Endian_Scalar_Size) == 0 && "NamedTensor error: Scalar_ is not composed of Endian_Scalar_Size" );
// Size of the data (in bytes)
const uint32_t Scalar_Size{sizeof(Scalar_)};
const auto NumElements = tensor.size();
const std::streamsize TotalDataSize{static_cast<std::streamsize>(NumElements * Scalar_Size)};
uint64_t u64 = htobe64(static_cast<uint64_t>(TotalDataSize));
w.write(reinterpret_cast<const char *>(&u64), sizeof(u64));
// Size of a Scalar_
uint32_t u32{htobe32(Scalar_Size)};
w.write(reinterpret_cast<const char *>(&u32), sizeof(u32));
// Endian_Scalar_Size
uint16_t u16{htobe16(Endian_Scalar_Size)};
w.write(reinterpret_cast<const char *>(&u16), sizeof(u16));
// number of dimensions which aren't 1
u16 = static_cast<uint16_t>(this->NumIndices);
for( auto dim : tensor.dimensions() )
if( dim == 1 )
u16--;
u16 = htobe16( u16 );
w.write(reinterpret_cast<const char *>(&u16), sizeof(u16));
// dimensions together with names
int d = 0;
for( auto dim : tensor.dimensions() ) {
if( dim != 1 ) {
// size of this dimension
u16 = htobe16( static_cast<uint16_t>( dim ) );
w.write(reinterpret_cast<const char *>(&u16), sizeof(u16));
// length of this dimension name
u16 = htobe16( static_cast<uint16_t>( IndexNames[d].size() ) );
w.write(reinterpret_cast<const char *>(&u16), sizeof(u16));
// dimension name
w.write(IndexNames[d].c_str(), IndexNames[d].size());
}
d++;
}
// Actual data
char * const pStart{reinterpret_cast<char *>(tensor.data())};
// Swap to network byte order in place (alternative is to copy memory - still slow)
void * const pEnd{pStart + TotalDataSize};
if(Endian_Scalar_Size == 8)
for(uint64_t * p = reinterpret_cast<uint64_t *>(pStart) ; p < pEnd ; p++ )
* p = htobe64( * p );
else if(Endian_Scalar_Size == 4)
for(uint32_t * p = reinterpret_cast<uint32_t *>(pStart) ; p < pEnd ; p++ )
* p = htobe32( * p );
else if(Endian_Scalar_Size == 2)
for(uint16_t * p = reinterpret_cast<uint16_t *>(pStart) ; p < pEnd ; p++ )
* p = htobe16( * p );
w.write(pStart, TotalDataSize);
// Swap back from network byte order
if(Endian_Scalar_Size == 8)
for(uint64_t * p = reinterpret_cast<uint64_t *>(pStart) ; p < pEnd ; p++ )
* p = be64toh( * p );
else if(Endian_Scalar_Size == 4)
for(uint32_t * p = reinterpret_cast<uint32_t *>(pStart) ; p < pEnd ; p++ )
* p = be32toh( * p );
else if(Endian_Scalar_Size == 2)
for(uint16_t * p = reinterpret_cast<uint16_t *>(pStart) ; p < pEnd ; p++ )
* p = be16toh( * p );
// checksum
#ifdef USE_IPP
u32 = htobe32(GridChecksum::crc32c(tensor.data(), TotalDataSize));
#else
u32 = htobe32(GridChecksum::crc32(tensor.data(), TotalDataSize));
#endif
w.write(reinterpret_cast<const char *>(&u32), sizeof(u32));
}
/******************************************************************************
Load NamedTensor binary format (NB: On-disk format is Big Endian)
Assumes the Scalar_ objects are contiguous (no padding)
******************************************************************************/
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size>
void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::ReadBinary(const std::string filename) {
LOG(Message) << "Reading NamedTensor from \"" << filename << "\"" << std::endl;
std::ifstream r(filename, std::ios::binary);
// Enforce assumption that the scalar is composed of fundamental elements of size Endian_Scalar_Size
assert((Endian_Scalar_Size == 1 || Endian_Scalar_Size == 2 || Endian_Scalar_Size == 4 || Endian_Scalar_Size == 8 )
&& "NamedTensor error: Endian_Scalar_Size should be 1, 2, 4 or 8");
assert((sizeof(Scalar_) % Endian_Scalar_Size) == 0 && "NamedTensor error: Scalar_ is not composed of Endian_Scalar_Size" );
// Size of the data in bytes
const uint32_t Scalar_Size{sizeof(Scalar_)};
Index NumElements{tensor.size()};
std::streamsize TotalDataSize{static_cast<std::streamsize>(NumElements * Scalar_Size)};
uint64_t u64;
r.read(reinterpret_cast<char *>(&u64), sizeof(u64));
assert( TotalDataSize == 0 || TotalDataSize == be64toh( u64 ) && "NamedTensor error: Size of the data in bytes" );
// Size of a Scalar_
uint32_t u32;
r.read(reinterpret_cast<char *>(&u32), sizeof(u32));
assert( Scalar_Size == be32toh( u32 ) && "NamedTensor error: sizeof(Scalar_)");
// Endian_Scalar_Size
uint16_t u16;
r.read(reinterpret_cast<char *>(&u16), sizeof(u16));
assert( Endian_Scalar_Size == be16toh( u16 ) && "NamedTensor error: Scalar_Unit_size");
// number of dimensions which aren't 1
uint16_t NumFileDimensions;
r.read(reinterpret_cast<char *>(&NumFileDimensions), sizeof(NumFileDimensions));
NumFileDimensions = be16toh( NumFileDimensions );
/*for( auto dim : tensor.dimensions() )
if( dim == 1 )
u16++;*/
assert( ( TotalDataSize == 0 && this->NumIndices >= NumFileDimensions || this->NumIndices == NumFileDimensions )
&& "NamedTensor error: number of dimensions which aren't 1" );
if( TotalDataSize == 0 ) {
// Read each dimension, using names to skip past dimensions == 1
std::array<Index,NumIndices_> NewDimensions;
for( Index &i : NewDimensions ) i = 1;
int d = 0;
for( int FileDimension = 0; FileDimension < NumFileDimensions; FileDimension++ ) {
// read dimension
uint16_t thisDim;
r.read(reinterpret_cast<char *>(&thisDim), sizeof(thisDim));
// read dimension name
r.read(reinterpret_cast<char *>(&u16), sizeof(u16));
size_t l = be16toh( u16 );
std::string s( l, '?' );
r.read(&s[0], l);
// skip forward to matching name
while( IndexNames[d].size() > 0 && !CompareCaseInsensitive( s, IndexNames[d] ) )
assert(++d < NumIndices && "NamedTensor error: dimension name" );
if( IndexNames[d].size() == 0 )
IndexNames[d] = s;
NewDimensions[d++] = be16toh( thisDim );
}
tensor.resize(NewDimensions);
NumElements = 1;
for( Index i : NewDimensions ) NumElements *= i;
TotalDataSize = NumElements * Scalar_Size;
} else {
// dimensions together with names
const auto & TensorDims = tensor.dimensions();
for( int d = 0; d < NumIndices_; d++ ) {
// size of dimension
r.read(reinterpret_cast<char *>(&u16), sizeof(u16));
u16 = be16toh( u16 );
assert( TensorDims[d] == u16 && "size of dimension" );
// length of dimension name
r.read(reinterpret_cast<char *>(&u16), sizeof(u16));
size_t l = be16toh( u16 );
assert( l == IndexNames[d].size() && "NamedTensor error: length of dimension name" );
// dimension name
std::string s( l, '?' );
r.read(&s[0], l);
assert( s == IndexNames[d] && "NamedTensor error: dimension name" );
}
}
// Actual data
char * const pStart{reinterpret_cast<char *>(tensor.data())};
void * const pEnd{pStart + TotalDataSize};
r.read(pStart,TotalDataSize);
// Swap back from network byte order
if(Endian_Scalar_Size == 8)
for(uint64_t * p = reinterpret_cast<uint64_t *>(pStart) ; p < pEnd ; p++ )
* p = be64toh( * p );
else if(Endian_Scalar_Size == 4)
for(uint32_t * p = reinterpret_cast<uint32_t *>(pStart) ; p < pEnd ; p++ )
* p = be32toh( * p );
else if(Endian_Scalar_Size == 2)
for(uint16_t * p = reinterpret_cast<uint16_t *>(pStart) ; p < pEnd ; p++ )
* p = be16toh( * p );
// checksum
r.read(reinterpret_cast<char *>(&u32), sizeof(u32));
u32 = be32toh( u32 );
#ifdef USE_IPP
u32 -= GridChecksum::crc32c(tensor.data(), TotalDataSize);
#else
u32 -= GridChecksum::crc32(tensor.data(), TotalDataSize);
#endif
assert( u32 == 0 && "NamedTensor error: PerambTensor checksum invalid");
}
/****************************************************************************** /******************************************************************************
Write NamedTensor Write NamedTensor
******************************************************************************/ ******************************************************************************/
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size> template<typename Scalar_, int NumIndices_>
template<typename Writer> template<typename Writer>
void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::write(Writer &w, const char * pszTag)const{ void NamedTensor<Scalar_, NumIndices_>::write(Writer &w, const char * pszTag)const{
if( pszTag == nullptr ) if( pszTag == nullptr )
pszTag = "NamedTensor"; pszTag = "NamedTensor";
LOG(Message) << "Writing NamedTensor to tag " << pszTag << std::endl; LOG(Message) << "Writing NamedTensor to tag " << pszTag << std::endl;
write(w, pszTag, *this); write(w, pszTag, *this);
} }
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size> template<typename Scalar_, int NumIndices_>
void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::write(const char * filename, const char * pszTag)const{ void NamedTensor<Scalar_, NumIndices_>::write(const char * filename, const char * pszTag)const{
std::string sFileName{filename}; std::string sFileName{filename};
sFileName.append( MDistil::FileExtension ); sFileName.append( MDistil::FileExtension );
LOG(Message) << "Writing NamedTensor to file " << sFileName << std::endl; LOG(Message) << "Writing NamedTensor to file " << sFileName << std::endl;
@ -598,8 +364,8 @@ void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::write(const char * f
Validate named tensor index names Validate named tensor index names
******************************************************************************/ ******************************************************************************/
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size> template<typename Scalar_, int NumIndices_>
bool NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::ValidateIndexNames( int iNumNames, const std::string * MatchNames ) const { bool NamedTensor<Scalar_, NumIndices_>::ValidateIndexNames( int iNumNames, const std::string * MatchNames ) const {
bool bSame{ iNumNames == NumIndices_ && IndexNames.size() == NumIndices_ }; bool bSame{ iNumNames == NumIndices_ && IndexNames.size() == NumIndices_ };
for( int i = 0; bSame && i < NumIndices_; i++ ) for( int i = 0; bSame && i < NumIndices_; i++ )
bSame = CompareCaseInsensitive( MatchNames[i], IndexNames[i] ); bSame = CompareCaseInsensitive( MatchNames[i], IndexNames[i] );
@ -610,9 +376,9 @@ bool NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::ValidateIndexNames(
Read NamedTensor Read NamedTensor
******************************************************************************/ ******************************************************************************/
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size> template<typename Scalar_, int NumIndices_>
template<typename Reader> template<typename Reader>
void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::read(Reader &r, const char * pszTag) { void NamedTensor<Scalar_, NumIndices_>::read(Reader &r, const char * pszTag) {
if( pszTag == nullptr ) if( pszTag == nullptr )
pszTag = "NamedTensor"; pszTag = "NamedTensor";
// Grab index names and dimensions // Grab index names and dimensions
@ -626,8 +392,8 @@ void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::read(Reader &r, cons
assert( ValidateIndexNames( OldIndexNames.size(), &OldIndexNames[0] ) && "NamedTensor::load dimension name" ); assert( ValidateIndexNames( OldIndexNames.size(), &OldIndexNames[0] ) && "NamedTensor::load dimension name" );
} }
template<typename Scalar_, int NumIndices_, uint16_t Endian_Scalar_Size> template<typename Scalar_, int NumIndices_>
void NamedTensor<Scalar_, NumIndices_, Endian_Scalar_Size>::read(const char * filename, const char * pszTag) { void NamedTensor<Scalar_, NumIndices_>::read(const char * filename, const char * pszTag) {
std::string sFileName{filename}; std::string sFileName{filename};
sFileName.append( MDistil::FileExtension ); sFileName.append( MDistil::FileExtension );
LOG(Message) << "Reading NamedTensor from file " << sFileName << std::endl; LOG(Message) << "Reading NamedTensor from file " << sFileName << std::endl;
@ -664,19 +430,14 @@ inline void RotateEigen(std::vector<LatticeColourVector> & evec)
Coordinate siteFirst(grid->Nd(),0); Coordinate siteFirst(grid->Nd(),0);
peekSite(cv0, evec[0], siteFirst); peekSite(cv0, evec[0], siteFirst);
Grid::Complex cplx0 = cv0()()(0); Grid::Complex cplx0 = cv0()()(0);
#ifdef GRID_NVCC
if( cplx0.imag() == 0 ) if( cplx0.imag() == 0 )
#else
if( std::imag(cplx0) == 0 )
#endif
std::cout << GridLogMessage << "RotateEigen() : Site 0 : " << cplx0 << " => already meets phase convention" << std::endl; std::cout << GridLogMessage << "RotateEigen() : Site 0 : " << cplx0 << " => already meets phase convention" << std::endl;
else { else {
const Real cplx0_mag = Grid::abs(cplx0);
#ifdef GRID_NVCC #ifdef GRID_NVCC
const Real cplx0_mag = thrust::abs(cplx0);
const Grid::Complex phase = thrust::conj(cplx0 / cplx0_mag); const Grid::Complex phase = thrust::conj(cplx0 / cplx0_mag);
const Real argphase = thrust::arg(phase); const Real argphase = thrust::arg(phase);
#else #else
const Real cplx0_mag = std::abs(cplx0);
const Grid::Complex phase = std::conj(cplx0 / cplx0_mag); const Grid::Complex phase = std::conj(cplx0 / cplx0_mag);
const Real argphase = std::arg(phase); const Real argphase = std::arg(phase);
#endif #endif

8
Hadrons/Modules/MDistil/LapEvec.hpp
View File

@ -219,7 +219,7 @@ void TLapEvec<GImpl>::execute(void)
} }
//////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////
// Invert Peardon Nabla operator separately on each time-slice // Invert nabla operator separately on each time-slice
//////////////////////////////////////////////////////////////////////// ////////////////////////////////////////////////////////////////////////
auto & eig4d = envGet(LapEvecs, getName() ); auto & eig4d = envGet(LapEvecs, getName() );
@ -237,7 +237,7 @@ void TLapEvec<GImpl>::execute(void)
// Construct smearing operator // Construct smearing operator
ExtractSliceLocal(UmuNoTime,Umu_smear,0,t,Tdir); // switch to 3d/4d objects ExtractSliceLocal(UmuNoTime,Umu_smear,0,t,Tdir); // switch to 3d/4d objects
LinOpPeardonNabla<LatticeColourVector> PeardonNabla(UmuNoTime); Laplacian3D<LatticeColourVector> Nabla(UmuNoTime);
LOG(Debug) << "Chebyshev preconditioning to order " << ChebPar.PolyOrder LOG(Debug) << "Chebyshev preconditioning to order " << ChebPar.PolyOrder
<< " with parameters (alpha,beta) = (" << ChebPar.alpha << "," << ChebPar.beta << ")" << std::endl; << " with parameters (alpha,beta) = (" << ChebPar.alpha << "," << ChebPar.beta << ")" << std::endl;
Chebyshev<LatticeColourVector> Cheb(ChebPar.alpha,ChebPar.beta,ChebPar.PolyOrder); Chebyshev<LatticeColourVector> Cheb(ChebPar.alpha,ChebPar.beta,ChebPar.PolyOrder);
@ -248,9 +248,9 @@ void TLapEvec<GImpl>::execute(void)
nn = Grid::sqrt(nn); nn = Grid::sqrt(nn);
src = src * (1.0/nn); src = src * (1.0/nn);
LinOpPeardonNablaHerm<LatticeColourVector> PeardonNablaCheby(Cheb,PeardonNabla); Laplacian3DHerm<LatticeColourVector> NablaCheby(Cheb,Nabla);
ImplicitlyRestartedLanczos<LatticeColourVector> ImplicitlyRestartedLanczos<LatticeColourVector>
IRL(PeardonNablaCheby,PeardonNabla,LPar.Nvec,LPar.Nk,LPar.Nk+LPar.Np,LPar.resid,LPar.MaxIt); IRL(NablaCheby,Nabla,LPar.Nvec,LPar.Nk,LPar.Nk+LPar.Np,LPar.resid,LPar.MaxIt);
int Nconv = 0; int Nconv = 0;
IRL.calc(eig[t].eval,eig[t].evec,src,Nconv); IRL.calc(eig[t].eval,eig[t].evec,src,Nconv);
if( Nconv < LPar.Nvec ) { if( Nconv < LPar.Nvec ) {

3
Hadrons/Modules/MDistil/Noises.hpp
View File

@ -133,7 +133,8 @@ void TNoises<FImpl>::execute(void)
UniqueIdentifier = getName(); UniqueIdentifier = getName();
} }
UniqueIdentifier.append( std::to_string( vm().getTrajectory() ) ); UniqueIdentifier.append( std::to_string( vm().getTrajectory() ) );
// We use our own seeds so we can specify different noises per quark
GridSerialRNG sRNG; GridSerialRNG sRNG;
sRNG.SeedUniqueString(UniqueIdentifier); sRNG.SeedUniqueString(UniqueIdentifier);
Real rn; Real rn;

304
Hadrons/Modules/MDistil/Perambulator.hpp
View File

@ -30,7 +30,6 @@
#ifndef Hadrons_MDistil_Perambulator_hpp_ #ifndef Hadrons_MDistil_Perambulator_hpp_
#define Hadrons_MDistil_Perambulator_hpp_ #define Hadrons_MDistil_Perambulator_hpp_
// These are members of Distillation
#include <Hadrons/Distil.hpp> #include <Hadrons/Distil.hpp>
BEGIN_HADRONS_NAMESPACE BEGIN_HADRONS_NAMESPACE
@ -47,10 +46,10 @@ public:
GRID_SERIALIZABLE_CLASS_MEMBERS(PerambulatorPar, GRID_SERIALIZABLE_CLASS_MEMBERS(PerambulatorPar,
std::string, lapevec, std::string, lapevec,
std::string, solver, std::string, solver,
std::string, noise, std::string, noise,
std::string, PerambFileName, std::string, PerambFileName,
std::string, UnsmearedSinkFileName, std::string, UnsmearedSinkFileName,
std::string, UnsmearedSinkMultiFile, std::string, UnsmearedSinkMultiFile,
int, nvec, int, nvec,
DistilParameters, Distil); DistilParameters, Distil);
}; };
@ -59,29 +58,29 @@ template <typename FImpl>
class TPerambulator: public Module<PerambulatorPar> class TPerambulator: public Module<PerambulatorPar>
{ {
public: public:
FERM_TYPE_ALIASES(FImpl,); FERM_TYPE_ALIASES(FImpl,);
SOLVER_TYPE_ALIASES(FImpl,); SOLVER_TYPE_ALIASES(FImpl,);
// constructor // constructor
TPerambulator(const std::string name); TPerambulator(const std::string name);
// destructor // destructor
virtual ~TPerambulator(void); virtual ~TPerambulator(void);
// dependency relation // dependency relation
virtual std::vector<std::string> getInput(void); virtual std::vector<std::string> getInput(void);
virtual std::vector<std::string> getOutput(void); virtual std::vector<std::string> getOutput(void);
// setup // setup
virtual void setup(void); virtual void setup(void);
// execution // execution
virtual void execute(void); virtual void execute(void);
protected: protected:
virtual void Cleanup(void); virtual void Cleanup(void);
protected: protected:
// These variables are created in setup() and freed in Cleanup() // These variables are created in setup() and freed in Cleanup()
GridCartesian * grid3d; // Owned by me, so I must delete it GridCartesian * grid3d; // Owned by me, so I must delete it
GridCartesian * grid4d; // Owned by environment (so I won't delete it) GridCartesian * grid4d; // Owned by environment (so I won't delete it)
// Other members // Other members
unsigned int Ls_; unsigned int Ls_;
std::string sLapEvecName; std::string sLapEvecName;
std::string sNoiseName; std::string sNoiseName;
}; };
MODULE_REGISTER_TMP(Perambulator, TPerambulator<FIMPL>, MDistil); MODULE_REGISTER_TMP(Perambulator, TPerambulator<FIMPL>, MDistil);
@ -99,174 +98,181 @@ TPerambulator<FImpl>::TPerambulator(const std::string name)
template <typename FImpl> template <typename FImpl>
TPerambulator<FImpl>::~TPerambulator(void) TPerambulator<FImpl>::~TPerambulator(void)
{ {
Cleanup(); Cleanup();
}; };
// dependencies/products /////////////////////////////////////////////////////// // dependencies/products ///////////////////////////////////////////////////////
template <typename FImpl> template <typename FImpl>
std::vector<std::string> TPerambulator<FImpl>::getInput(void) std::vector<std::string> TPerambulator<FImpl>::getInput(void)
{ {
sLapEvecName = par().lapevec; sLapEvecName = par().lapevec;
sNoiseName = par().noise; sNoiseName = par().noise;
if( sNoiseName.length() == 0 ) if( sNoiseName.length() == 0 )
sNoiseName = getName() + "_noise"; sNoiseName = getName() + "_noise";
return {sLapEvecName, par().solver, sNoiseName }; return {sLapEvecName, par().solver, sNoiseName };
} }
template <typename FImpl> template <typename FImpl>
std::vector<std::string> TPerambulator<FImpl>::getOutput(void) std::vector<std::string> TPerambulator<FImpl>::getOutput(void)
{ {
return {getName(), getName() + "_unsmeared_sink"}; return {getName(), getName() + "_unsmeared_sink"};
} }
// setup /////////////////////////////////////////////////////////////////////// // setup ///////////////////////////////////////////////////////////////////////
template <typename FImpl> template <typename FImpl>
void TPerambulator<FImpl>::setup(void) void TPerambulator<FImpl>::setup(void)
{ {
Cleanup(); Cleanup();
grid4d = env().getGrid(); grid4d = env().getGrid();
grid3d = MakeLowerDimGrid(grid4d); grid3d = MakeLowerDimGrid(grid4d);
DISTIL_PARAMETERS_DEFINE( true ); DISTIL_PARAMETERS_DEFINE( true );
const std::string UnsmearedSinkFileName{ par().UnsmearedSinkFileName }; const std::string UnsmearedSinkFileName{ par().UnsmearedSinkFileName };
if( !UnsmearedSinkFileName.empty() ) if( !UnsmearedSinkFileName.empty() )
bool bMulti = ( Hadrons::MDistil::DistilParameters::ParameterDefault( par().UnsmearedSinkMultiFile, 1, true ) != 0 ); bool bMulti = ( Hadrons::MDistil::DistilParameters::ParameterDefault( par().UnsmearedSinkMultiFile, 1, true ) != 0 );
envCreate(PerambTensor, getName(), 1, PerambIndexNames,Nt,nvec,LI,nnoise,Nt_inv,SI); envCreate(PerambTensor, getName(), 1, PerambIndexNames,Nt,nvec,LI,nnoise,Nt_inv,SI);
envCreate(std::vector<FermionField>, getName() + "_unsmeared_sink", 1, envCreate(std::vector<FermionField>, getName() + "_unsmeared_sink", 1,
nnoise*LI*Ns*Nt_inv, envGetGrid(FermionField)); nnoise*LI*Ns*Nt_inv, envGetGrid(FermionField));
envTmpLat(LatticeSpinColourVector, "dist_source"); envTmpLat(LatticeSpinColourVector, "dist_source");
envTmpLat(LatticeSpinColourVector, "tmp2"); envTmpLat(LatticeSpinColourVector, "tmp2");
envTmpLat(LatticeSpinColourVector, "result"); envTmpLat(LatticeSpinColourVector, "result");
envTmpLat(LatticeColourVector, "result_nospin"); envTmpLat(LatticeColourVector, "result_nospin");
envTmp(LatticeSpinColourVector, "tmp3d",1,LatticeSpinColourVector(grid3d)); envTmp(LatticeSpinColourVector, "tmp3d",1,LatticeSpinColourVector(grid3d));
envTmp(LatticeColourVector, "tmp3d_nospin",1,LatticeColourVector(grid3d)); envTmp(LatticeColourVector, "tmp3d_nospin",1,LatticeColourVector(grid3d));
envTmp(LatticeColourVector, "result_3d",1,LatticeColourVector(grid3d)); envTmp(LatticeColourVector, "result_3d",1,LatticeColourVector(grid3d));
envTmp(LatticeColourVector, "evec3d",1,LatticeColourVector(grid3d)); envTmp(LatticeColourVector, "evec3d",1,LatticeColourVector(grid3d));
Ls_ = env().getObjectLs(par().solver); Ls_ = env().getObjectLs(par().solver);
envTmpLat(FermionField, "v4dtmp"); envTmpLat(FermionField, "v4dtmp");
envTmpLat(FermionField, "v5dtmp", Ls_); envTmpLat(FermionField, "v5dtmp", Ls_);
envTmpLat(FermionField, "v5dtmp_sol", Ls_); envTmpLat(FermionField, "v5dtmp_sol", Ls_);
} }
// clean up any temporaries created by setup (that aren't stored in the environment) // clean up any temporaries created by setup (that aren't stored in the environment)
template <typename FImpl> template <typename FImpl>
void TPerambulator<FImpl>::Cleanup(void) void TPerambulator<FImpl>::Cleanup(void)
{ {
if( grid3d != nullptr ) { if( grid3d != nullptr )
delete grid3d; {
grid3d = nullptr; delete grid3d;
} grid3d = nullptr;
grid4d = nullptr; }
grid4d = nullptr;
} }
// execution /////////////////////////////////////////////////////////////////// // execution ///////////////////////////////////////////////////////////////////
template <typename FImpl> template <typename FImpl>
void TPerambulator<FImpl>::execute(void) void TPerambulator<FImpl>::execute(void)
{ {
DISTIL_PARAMETERS_DEFINE( false ); DISTIL_PARAMETERS_DEFINE( false );
auto &solver=envGet(Solver, par().solver); auto &solver=envGet(Solver, par().solver);
auto &mat = solver.getFMat(); auto &mat = solver.getFMat();
envGetTmp(FermionField, v4dtmp); envGetTmp(FermionField, v4dtmp);
envGetTmp(FermionField, v5dtmp); envGetTmp(FermionField, v5dtmp);
envGetTmp(FermionField, v5dtmp_sol); envGetTmp(FermionField, v5dtmp_sol);
auto &noise = envGet(NoiseTensor, sNoiseName); auto &noise = envGet(NoiseTensor, sNoiseName);
auto &perambulator = envGet(PerambTensor, getName()); auto &perambulator = envGet(PerambTensor, getName());
auto &epack = envGet(LapEvecs, sLapEvecName); auto &epack = envGet(LapEvecs, sLapEvecName);
auto &unsmeared_sink = envGet(std::vector<FermionField>, getName() + "_unsmeared_sink"); auto &unsmeared_sink = envGet(std::vector<FermionField>, getName() + "_unsmeared_sink");
envGetTmp(LatticeSpinColourVector, dist_source);
envGetTmp(LatticeSpinColourVector, tmp2);
// Load perambulator if it exists on disk instead of creating it envGetTmp(LatticeSpinColourVector, result);
// Not sure this is how we want it - rather specify an input flag 'read' envGetTmp(LatticeColourVector, result_nospin);
// and assert that the file is there. envGetTmp(LatticeSpinColourVector, tmp3d);
envGetTmp(LatticeColourVector, tmp3d_nospin);
envGetTmp(LatticeSpinColourVector, dist_source); envGetTmp(LatticeColourVector, result_3d);
envGetTmp(LatticeSpinColourVector, tmp2); envGetTmp(LatticeColourVector, evec3d);
envGetTmp(LatticeSpinColourVector, result);
envGetTmp(LatticeColourVector, result_nospin);
envGetTmp(LatticeSpinColourVector, tmp3d);
envGetTmp(LatticeColourVector, tmp3d_nospin);
envGetTmp(LatticeColourVector, result_3d);
envGetTmp(LatticeColourVector, evec3d);
const int Ntlocal{grid4d->LocalDimensions()[3]}; const int Ntlocal{grid4d->LocalDimensions()[3]};
const int Ntfirst{grid4d->LocalStarts()[3]}; const int Ntfirst{grid4d->LocalStarts()[3]};
const std::string UnsmearedSinkFileName{ par().UnsmearedSinkFileName };
{ {
int t_inv;
int t_inv; for (int inoise = 0; inoise < nnoise; inoise++)
for (int inoise = 0; inoise < nnoise; inoise++) { {
for (int dk = 0; dk < LI; dk++) { for (int dk = 0; dk < LI; dk++)
for (int dt = 0; dt < Nt_inv; dt++) { {
for (int ds = 0; ds < SI; ds++) { for (int dt = 0; dt < Nt_inv; dt++)
LOG(Message) << "LapH source vector from noise " << inoise << " and dilution component (d_k,d_t,d_alpha) : (" << dk << ","<< dt << "," << ds << ")" << std::endl; {
dist_source = 0; for (int ds = 0; ds < SI; ds++)
tmp3d_nospin = 0; {
evec3d = 0; LOG(Message) << "LapH source vector from noise " << inoise << " and dilution component (d_k,d_t,d_alpha) : (" << dk << ","<< dt << "," << ds << ")" << std::endl;
for (int it = dt; it < Nt; it += TI){ dist_source = 0;
if (full_tdil) t_inv = tsrc; else t_inv = it; tmp3d_nospin = 0;
if( t_inv >= Ntfirst && t_inv < Ntfirst + Ntlocal ) { evec3d = 0;
for (int ik = dk; ik < nvec; ik += LI){ for (int it = dt; it < Nt; it += TI)
for (int is = ds; is < Ns; is += SI){ {
ExtractSliceLocal(evec3d,epack.evec[ik],0,t_inv-Ntfirst,Tdir); if (full_tdil) t_inv = tsrc; else t_inv = it;
tmp3d_nospin = evec3d * noise(inoise, t_inv, ik, is); if( t_inv >= Ntfirst && t_inv < Ntfirst + Ntlocal )
tmp3d=0; {
pokeSpin(tmp3d,tmp3d_nospin,is); for (int ik = dk; ik < nvec; ik += LI)
tmp2=0; {
InsertSliceLocal(tmp3d,tmp2,0,t_inv-Ntfirst,Tdir); for (int is = ds; is < Ns; is += SI)
dist_source += tmp2; {
} ExtractSliceLocal(evec3d,epack.evec[ik],0,t_inv-Ntfirst,Tdir);
tmp3d_nospin = evec3d * noise(inoise, t_inv, ik, is);
tmp3d=0;
pokeSpin(tmp3d,tmp3d_nospin,is);
tmp2=0;
InsertSliceLocal(tmp3d,tmp2,0,t_inv-Ntfirst,Tdir);
dist_source += tmp2;
}
}
}
}
result=0;
v4dtmp = dist_source;
if (Ls_ == 1)
{
solver(result, v4dtmp);
}
else
{
mat.ImportPhysicalFermionSource(v4dtmp, v5dtmp);
solver(v5dtmp_sol, v5dtmp);
mat.ExportPhysicalFermionSolution(v5dtmp_sol, v4dtmp);
result = v4dtmp;
}
if( !UnsmearedSinkFileName.empty() )
unsmeared_sink[inoise+nnoise*(dk+LI*(dt+Nt_inv*ds))] = result;
for (int is = 0; is < Ns; is++)
{
result_nospin = peekSpin(result,is);
for (int t = Ntfirst; t < Ntfirst + Ntlocal; t++)
{
ExtractSliceLocal(result_3d,result_nospin,0,t-Ntfirst,Tdir);
for (int ivec = 0; ivec < nvec; ivec++)
{
ExtractSliceLocal(evec3d,epack.evec[ivec],0,t-Ntfirst,Tdir);
pokeSpin(perambulator(t, ivec, dk, inoise,dt,ds),static_cast<Complex>(innerProduct(evec3d, result_3d)),is);
}
}
}
}
} }
}
} }
result=0;
v4dtmp = dist_source;
if (Ls_ == 1){
solver(result, v4dtmp);
} else {
mat.ImportPhysicalFermionSource(v4dtmp, v5dtmp);
solver(v5dtmp_sol, v5dtmp);
mat.ExportPhysicalFermionSolution(v5dtmp_sol, v4dtmp);
result = v4dtmp;
}
if( !UnsmearedSinkFileName.empty() )
unsmeared_sink[inoise+nnoise*(dk+LI*(dt+Nt_inv*ds))] = result;
for (int is = 0; is < Ns; is++) {
result_nospin = peekSpin(result,is);
for (int t = Ntfirst; t < Ntfirst + Ntlocal; t++) {
ExtractSliceLocal(result_3d,result_nospin,0,t-Ntfirst,Tdir);
for (int ivec = 0; ivec < nvec; ivec++) {
ExtractSliceLocal(evec3d,epack.evec[ivec],0,t-Ntfirst,Tdir);
pokeSpin(perambulator(t, ivec, dk, inoise,dt,ds),static_cast<Complex>(innerProduct(evec3d, result_3d)),is);
}
}
}
}
} }
}
} }
} LOG(Message) << "perambulator done" << std::endl;
LOG(Message) << "perambulator done" << std::endl; perambulator.SliceShare( grid3d, grid4d );
perambulator.SliceShare( grid3d, grid4d );
if(grid4d->IsBoss())
if(grid4d->IsBoss()) { {
std::string sPerambName{par().PerambFileName}; std::string sPerambName{par().PerambFileName};
if( sPerambName.length() == 0 ) if( sPerambName.length() == 0 )
sPerambName = getName(); sPerambName = getName();
sPerambName.append( "." ); sPerambName.append( "." );
sPerambName.append( std::to_string(vm().getTrajectory())); sPerambName.append( std::to_string(vm().getTrajectory()));
perambulator.write(sPerambName.c_str()); perambulator.write(sPerambName.c_str());
} }
const std::string UnsmearedSinkFileName{ par().UnsmearedSinkFileName }; if( !UnsmearedSinkFileName.empty() )
if( !UnsmearedSinkFileName.empty() ) { {
bool bMulti = ( Hadrons::MDistil::DistilParameters::ParameterDefault( par().UnsmearedSinkMultiFile, 1, false ) != 0 ); bool bMulti = ( Hadrons::MDistil::DistilParameters::ParameterDefault( par().UnsmearedSinkMultiFile, 1, false ) != 0 );
LOG(Message) << "Writing unsmeared sink to " << UnsmearedSinkFileName << std::endl; LOG(Message) << "Writing unsmeared sink to " << UnsmearedSinkFileName << std::endl;
A2AVectorsIo::write(UnsmearedSinkFileName, unsmeared_sink, bMulti, vm().getTrajectory()); A2AVectorsIo::write(UnsmearedSinkFileName, unsmeared_sink, bMulti, vm().getTrajectory());
} }
} }
END_MODULE_NAMESPACE END_MODULE_NAMESPACE

748
tests/hadrons/Test_distil.cc
View File

@ -190,98 +190,22 @@ void test_Perambulators( Application &application, const char * pszSuffix = null
// DistilVectors // DistilVectors
///////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////
#define TEST_DISTIL_VECTORS_COMMON \
std::string sModuleName{"DistilVecs"}; \
if( pszSuffix ) \
sModuleName.append( pszSuffix ); \
std::string sPerambName{"Peramb"}; \
if( pszSuffix ) \
sPerambName.append( pszSuffix ); \
MDistil::DistilVectors::Par DistilVecPar; \
DistilVecPar.noise = sPerambName + "_noise"; \
DistilVecPar.perambulator = sPerambName; \
DistilVecPar.lapevec = "LapEvec"; \
DistilVecPar.tsrc = 0; \
if( pszNvec ) \
DistilVecPar.nvec = pszNvec
#define TEST_DISTIL_VECTORS_COMMON_END \
application.createModule<MDistil::DistilVectors>(sModuleName,DistilVecPar)
void test_DistilVectors(Application &application, const char * pszSuffix = nullptr, const char * pszNvec = nullptr ) void test_DistilVectors(Application &application, const char * pszSuffix = nullptr, const char * pszNvec = nullptr )
{ {
TEST_DISTIL_VECTORS_COMMON; std::string sModuleName{"DistilVecs"};
TEST_DISTIL_VECTORS_COMMON_END; if( pszSuffix )
} sModuleName.append( pszSuffix );
std::string sPerambName{"Peramb"};
void test_DistilVectorsSS(Application &application, const char * pszSink, const char * pszSource, if( pszSuffix )
const char * pszSuffix = nullptr, const char * pszNvec = nullptr ) sPerambName.append( pszSuffix );
{ MDistil::DistilVectors::Par DistilVecPar;
TEST_DISTIL_VECTORS_COMMON; DistilVecPar.noise = sPerambName + "_noise";
if( pszSink ) DistilVecPar.perambulator = sPerambName;
DistilVecPar.sink = pszSink; DistilVecPar.lapevec = "LapEvec";
if( pszSource ) DistilVecPar.tsrc = 0;
DistilVecPar.source = pszSource; if( pszNvec )
TEST_DISTIL_VECTORS_COMMON_END; DistilVecPar.nvec = pszNvec;
} application.createModule<MDistil::DistilVectors>(sModuleName,DistilVecPar);
/////////////////////////////////////////////////////////////
// Multiple Perambulators
/////////////////////////////////////////////////////////////
void test_MultiPerambulators(Application &application)
{
test_Perambulators( application, "5" );
MDistil::PerambFromSolve::Par SolvePar;
SolvePar.eigenPack="LapEvec";
SolvePar.PerambFileName="Peramb2";
SolvePar.solve = "Peramb5_unsmeared_sink";
SolvePar.Distil.nnoise = 1;
SolvePar.Distil.LI=5;
SolvePar.Distil.SI=4;
SolvePar.Distil.TI=8;
SolvePar.nvec=5;
SolvePar.nvec_reduced=2;
SolvePar.LI_reduced=2;
application.createModule<MDistil::PerambFromSolve>("Peramb2",SolvePar);
SolvePar.PerambFileName="Peramb3";
SolvePar.nvec_reduced=3;
SolvePar.LI_reduced=3;
application.createModule<MDistil::PerambFromSolve>("Peramb3",SolvePar);
test_DistilVectors( application, "2", "2" );
test_DistilVectors( application, "3", "3" );
test_DistilVectors( application, "5", "5" );
MContraction::A2AMesonField::Par A2AMesonFieldPar;
A2AMesonFieldPar.left="DistilVecs2_rho";
A2AMesonFieldPar.right="DistilVecs2_rho";
A2AMesonFieldPar.output="MesonSinksRho2";
A2AMesonFieldPar.gammas="Identity";
A2AMesonFieldPar.mom={"0 0 0"};
A2AMesonFieldPar.cacheBlock=2;
A2AMesonFieldPar.block=4;
application.createModule<MContraction::A2AMesonField>("DistilMesonFieldRho2",A2AMesonFieldPar);
A2AMesonFieldPar.left="DistilVecs2_phi";
A2AMesonFieldPar.right="DistilVecs2_phi";
A2AMesonFieldPar.output="MesonSinksPhi2";
application.createModule<MContraction::A2AMesonField>("DistilMesonFieldPhi2",A2AMesonFieldPar);
A2AMesonFieldPar.left="DistilVecs3_rho";
A2AMesonFieldPar.right="DistilVecs3_rho";
A2AMesonFieldPar.output="MesonSinksRho3";
application.createModule<MContraction::A2AMesonField>("DistilMesonFieldRho3",A2AMesonFieldPar);
A2AMesonFieldPar.left="DistilVecs3_phi";
A2AMesonFieldPar.right="DistilVecs3_phi";
A2AMesonFieldPar.output="MesonSinksPhi3";
application.createModule<MContraction::A2AMesonField>("DistilMesonFieldPhi3",A2AMesonFieldPar);
A2AMesonFieldPar.left="DistilVecs5_rho";
A2AMesonFieldPar.right="DistilVecs5_rho";
A2AMesonFieldPar.output="MesonSinksRho5";
application.createModule<MContraction::A2AMesonField>("DistilMesonFieldRho5",A2AMesonFieldPar);
A2AMesonFieldPar.left="DistilVecs5_phi";
A2AMesonFieldPar.right="DistilVecs5_phi";
A2AMesonFieldPar.output="MesonSinksPhi5";
application.createModule<MContraction::A2AMesonField>("DistilMesonFieldPhi5",A2AMesonFieldPar);
} }
///////////////////////////////////////////////////////////// /////////////////////////////////////////////////////////////
@ -330,163 +254,6 @@ void test_MesonField(Application &application, const char * pszFileSuffix,
application.createModule<MContraction::A2AMesonField>(sObjectName, A2AMesonFieldPar); application.createModule<MContraction::A2AMesonField>(sObjectName, A2AMesonFieldPar);
} }
/////////////////////////////////////////////////////////////
// g5*unsmeared
/////////////////////////////////////////////////////////////
#ifdef DISTIL_PRE_RELEASE
void test_g5_sinks(Application &application)
{
// DistilVectors parameters
MDistil::g5_multiply::Par g5_multiplyPar;
g5_multiplyPar.input="Peramb_unsmeared_sink";
g5_multiplyPar.nnoise = 1;
g5_multiplyPar.LI=5;
g5_multiplyPar.Ns=4;
g5_multiplyPar.Nt_inv=1;
application.createModule<MDistil::g5_multiply>("g5phi",g5_multiplyPar);
}
/////////////////////////////////////////////////////////////
// BaryonFields - phiphiphi - efficient
/////////////////////////////////////////////////////////////
void test_BaryonFieldPhi2(Application &application)
{
// DistilVectors parameters
MDistil::BC2::Par BC2Par;
BC2Par.one="DistilVecs_phi";
BC2Par.two="DistilVecs_phi";
BC2Par.three="DistilVecs_phi";
BC2Par.output="BaryonFieldPhi2";
BC2Par.parity=1;
BC2Par.mom={"0 0 0"};
application.createModule<MDistil::BC2>("BaryonFieldPhi2",BC2Par);
}
/////////////////////////////////////////////////////////////
// BaryonFields - rhorhorho - efficient
/////////////////////////////////////////////////////////////
void test_BaryonFieldRho2(Application &application)
{
// DistilVectors parameters
MDistil::BC2::Par BC2Par;
BC2Par.one="DistilVecs_rho";
BC2Par.two="DistilVecs_rho";
BC2Par.three="DistilVecs_rho";
BC2Par.output="BaryonFieldRho2";
BC2Par.parity=1;
BC2Par.mom={"0 0 0"};
application.createModule<MDistil::BC2>("BaryonFieldRho2",BC2Par);
}
/////////////////////////////////////////////////////////////
// BaryonFields - phiphiphi
/////////////////////////////////////////////////////////////
void test_BaryonFieldPhi(Application &application)
{
// DistilVectors parameters
MDistil::BContraction::Par BContractionPar;
BContractionPar.one="DistilVecs_phi";
BContractionPar.two="DistilVecs_phi";
BContractionPar.three="DistilVecs_phi";
BContractionPar.output="BaryonFieldPhi";
BContractionPar.parity=1;
BContractionPar.mom={"0 0 0"};
application.createModule<MDistil::BContraction>("BaryonFieldPhi",BContractionPar);
}
/////////////////////////////////////////////////////////////
// BaryonFields - rhorhorho
/////////////////////////////////////////////////////////////
void test_BaryonFieldRho(Application &application)
{
// DistilVectors parameters
MDistil::BContraction::Par BContractionPar;
BContractionPar.one="DistilVecs_rho";
BContractionPar.two="DistilVecs_rho";
BContractionPar.three="DistilVecs_rho";
BContractionPar.output="BaryonFieldRho";
BContractionPar.parity=1;
BContractionPar.mom={"0 0 0"};
application.createModule<MDistil::BContraction>("BaryonFieldRho",BContractionPar);
}
/////////////////////////////////////////////////////////////
// BaryonContraction
/////////////////////////////////////////////////////////////
void test_Baryon2pt(Application &application)
{
// DistilVectors parameters
MDistil::Baryon2pt::Par Baryon2ptPar;
Baryon2ptPar.inputL="BaryonFieldPhi";
Baryon2ptPar.inputR="BaryonFieldRho";
Baryon2ptPar.quarksL="uud";
Baryon2ptPar.quarksR="uud";
Baryon2ptPar.output="C2_baryon";
application.createModule<MDistil::Baryon2pt>("C2_b",Baryon2ptPar);
}
#endif
/////////////////////////////////////////////////////////////
// emField
/////////////////////////////////////////////////////////////
void test_em(Application &application)
{
MGauge::StochEm::Par StochEmPar;
StochEmPar.gauge=PhotonR::Gauge::feynman;
StochEmPar.zmScheme=PhotonR::ZmScheme::qedL;
application.createModule<MGauge::StochEm>("Em",StochEmPar);
}
/////////////////////////////////////////////////////////////
// MesonA2ASlash
/////////////////////////////////////////////////////////////
void test_Aslash(Application &application)
{
// DistilVectors parameters
MContraction::A2AAslashField::Par A2AAslashFieldPar;
A2AAslashFieldPar.left="g5phi";
//A2AAslashFieldPar.right="DistilVecs_phi";
A2AAslashFieldPar.right="Peramb_unsmeared_sink";
A2AAslashFieldPar.output="unsmeared_Aslash";
A2AAslashFieldPar.emField={"Em"};
A2AAslashFieldPar.cacheBlock=2;
A2AAslashFieldPar.block=4;
application.createModule<MContraction::A2AAslashField>("Aslash_field",A2AAslashFieldPar);
}
/////////////////////////////////////////////////////////////
// MesonA2ASlashSequential
/////////////////////////////////////////////////////////////
void test_AslashSeq(Application &application)
{
// DistilVectors parameters
MSolver::A2AAslashVectors::Par A2AAslashVectorsPar;
A2AAslashVectorsPar.vector="PerambS_unsmeared_sink";
A2AAslashVectorsPar.emField="Em";
A2AAslashVectorsPar.solver="CG_s";
A2AAslashVectorsPar.output="AslashSeq";
application.createModule<MSolver::A2AAslashVectors>("Aslash_seq",A2AAslashVectorsPar);
}
/////////////////////////////////////////////////////////////
// Aslash_perambulators
/////////////////////////////////////////////////////////////
void test_PerambulatorsSolve(Application &application)
{
// Perambulator parameters
MDistil::PerambFromSolve::Par PerambFromSolvePar;
PerambFromSolvePar.eigenPack="LapEvec";
PerambFromSolvePar.solve="Aslash_seq";
PerambFromSolvePar.PerambFileName="perambAslashS.bin";
PerambFromSolvePar.Distil.tsrc = 0;
PerambFromSolvePar.Distil.nnoise = 1;
PerambFromSolvePar.nvec=5;
application.createModule<MDistil::PerambFromSolve>("PerambAslashS",PerambFromSolvePar);
}
bool bNumber( int &ri, const char * & pstr, bool bGobbleWhiteSpace = true ) bool bNumber( int &ri, const char * & pstr, bool bGobbleWhiteSpace = true )
{ {
if( bGobbleWhiteSpace ) if( bGobbleWhiteSpace )
@ -515,398 +282,8 @@ bool bNumber( int &ri, const char * & pstr, bool bGobbleWhiteSpace = true )
return true; return true;
} }
#ifdef DEBUG
typedef Grid::Hadrons::MDistil::NamedTensor<Complex,3,sizeof(Real)> MyTensor;
template<typename T>
typename std::enable_if<Grid::EigenIO::is_tensor<T>::value && !Grid::Hadrons::MDistil::is_named_tensor<T>::value>::type
DebugShowTensor(T &x, const char * n, std::string * pIndexNames=nullptr)
{
const MyTensor::Index s{x.size()};
std::cout << n << ".size() = " << s << std::endl;
std::cout << n << ".NumDimensions = " << x.NumDimensions << " (TensorBase)" << std::endl;
std::cout << n << ".NumIndices = " << x.NumIndices << std::endl;
const auto d{x.dimensions()};
//std::cout << n << ".dimensions().size() = " << d.size() << std::endl;
std::cout << "Dimensions are ";
for(auto i = 0; i < x.NumDimensions ; i++)
std::cout << "[" << d[i] << "]";
std::cout << std::endl;
MyTensor::Index SizeCalculated{1};
std::cout << "Dimensions again";
for(int i=0 ; i < x.NumDimensions ; i++ ) {
std::cout << " : [" << i;
if( pIndexNames )
std::cout << ", " << pIndexNames[i];
std::cout << "]=" << x.dimension(i);
SizeCalculated *= d[i];
}
std::cout << std::endl;
std::cout << "SizeCalculated = " << SizeCalculated << std::endl;\
assert( SizeCalculated == s );
// Initialise
assert( x.NumDimensions == 3 );
for( int i = 0 ; i < d[0] ; i++ )
for( int j = 0 ; j < d[1] ; j++ )
for( int k = 0 ; k < d[2] ; k++ ) {
x(i,j,k) = std::complex<double>(SizeCalculated, -SizeCalculated);
SizeCalculated--;
}
// Show raw data
std::cout << "Data follow : " << std::endl;
typename T::Scalar * p = x.data();
for( auto i = 0 ; i < s ; i++ ) {
if( i ) std::cout << ", ";
std::cout << n << ".data()[" << i << "]=" << * p++;
}
std::cout << std::endl;
}
template<typename T>
typename std::enable_if<Grid::Hadrons::MDistil::is_named_tensor<T>::value>::type
DebugShowTensor(T &x, const char * n)
{
DebugShowTensor( x.tensor, n, &x.IndexNames[0] );
}
// Test whether typedef and underlying types are the same
void DebugTestTypeEqualities(void)
{
Real r1;
RealD r2;
double r3;
const std::type_info &tr1{typeid(r1)};
const std::type_info &tr2{typeid(r2)};
const std::type_info &tr3{typeid(r3)};
if( tr1 == tr2 && tr2 == tr3 )
std::cout << "r1, r2 and r3 are the same type" << std::endl;
else
std::cout << "r1, r2 and r3 are different types" << std::endl;
std::cout << "r1 is a " << tr1.name() << std::endl;
std::cout << "r2 is a " << tr2.name() << std::endl;
std::cout << "r3 is a " << tr3.name() << std::endl;
// These are the same
Complex c1;
std::complex<Real> c2;
const std::type_info &tc1{typeid(c1)};
const std::type_info &tc2{typeid(c2)};
const std::type_info &tc3{typeid(SpinVector::scalar_type)};
if( tc1 == tc2 && tc2 == tc3)
std::cout << "c1, c2 and SpinVector::scalar_type are the same type" << std::endl;
else
std::cout << "c1, c2 and SpinVector::scalar_type are different types" << std::endl;
std::cout << "c1 is a " << tc1.name() << std::endl;
std::cout << "c2 is a " << tc2.name() << std::endl;
std::cout << "SpinVector::scalar_type is a " << tc3.name() << std::endl;
// These are the same
SpinVector s1;
iSpinVector<Complex > s2;
iScalar<iVector<iScalar<Complex>, Ns> > s3;
const std::type_info &ts1{typeid(s1)};
const std::type_info &ts2{typeid(s2)};
const std::type_info &ts3{typeid(s3)};
if( ts1 == ts2 && ts2 == ts3 )
std::cout << "s1, s2 and s3 are the same type" << std::endl;
else
std::cout << "s1, s2 and s3 are different types" << std::endl;
std::cout << "s1 is a " << ts1.name() << std::endl;
std::cout << "s2 is a " << ts2.name() << std::endl;
std::cout << "s3 is a " << ts3.name() << std::endl;
// These are the same
SpinColourVector sc1;
iSpinColourVector<Complex > sc2;
const std::type_info &tsc1{typeid(sc1)};
const std::type_info &tsc2{typeid(sc2)};
if( tsc1 == tsc2 )
std::cout << "sc1 and sc2 are the same type" << std::endl;
else
std::cout << "sc1 and sc2 are different types" << std::endl;
std::cout << "sc1 is a " << tsc1.name() << std::endl;
std::cout << "sc2 is a " << tsc2.name() << std::endl;
}
bool DebugEigenTest()
{
{
Eigen::TensorFixedSize<std::complex<double>,Eigen::Sizes<3,4,5>> x;
DebugShowTensor(x, "fixed");
}
const char pszTestFileName[] = "test_tensor.bin";
std::array<std::string,3> as={"Alpha", "Beta", "Gamma"};
MyTensor x(as, 2,1,4);
DebugShowTensor(x, "x");
x.write(pszTestFileName);
// Test initialisation of an array of strings
for( auto a : as )
std::cout << a << std::endl;
Grid::Hadrons::MDistil::NamedTensor<Complex,3,sizeof(Real)> p{as,2,7,2};
DebugShowTensor(p, "p");
std::cout << "p.IndexNames follow" << std::endl;
for( auto a : p.IndexNames )
std::cout << a << std::endl;
// Now see whether we can read a tensor back
std::array<std::string,3> Names2={"Alpha", "Gamma", "Delta"};
MyTensor y(Names2, 2,4,1);
y.read(pszTestFileName);
DebugShowTensor(y, "y");
// Now see whether we can read a tensor back from an hdf5 file
const char * pszFileName = "test";
y.write(pszFileName);
{
MyTensor z;
const char * pszName = "z1";
DebugShowTensor(z, pszName);
z.read(pszFileName);
DebugShowTensor(z, pszName);
}
{
MyTensor z(Names2,2,0,0);
const char * pszName = "z2";
DebugShowTensor(z, pszName);
z.read(pszFileName);
DebugShowTensor(z, pszName);
}
{
// Now see whether we can read a tensor back from an xml file
const char * pszXmlName = "test.xml";
{
XmlWriter w(pszXmlName);
y.write<XmlWriter>(w);
}
MyTensor z;
const char * pszName = "xml1";
DebugShowTensor(z, pszName);
XmlReader r(pszXmlName);
z.read<XmlReader>(r);
DebugShowTensor(z, pszName);
}
if((0)) // The following tests would fail
{
MyTensor z(Names2,2,0,78);
//std::array<std::string,3> NamesBad={"Alpha", "Gamma", "Kilo"};
//MyTensor z(NamesBad);
const char * pszName = "zFail";
DebugShowTensor(z, pszName);
z.read(pszFileName);
DebugShowTensor(z, pszName);
}
// Testing whether typedef produces the same type - yes it does
DebugTestTypeEqualities();
std::cout << std::endl;
// How to access members of SpinColourVector
SpinColourVector sc;
for( int s = 0 ; s < Ns ; s++ ) {
auto cv{sc()(s)};
iVector<Complex,Nc> c2{sc()(s)};
std::cout << " cv is a " << typeid(cv).name() << std::endl;
std::cout << " c2 is a " << typeid(c2).name() << std::endl;
for( int c = 0 ; c < Nc ; c++ ) {
Complex & z{cv(c)};
std::cout << " sc[spin=" << s << ", colour=" << c << "] = " << z << std::endl;
}
}
// We could have removed the Lorentz index independently, but much easier to do as we do above
iVector<iVector<Complex,Nc>,Ns> sc2{sc()};
std::cout << "sc() is a " << typeid(sc()).name() << std::endl;
std::cout << "sc2 is a " << typeid(sc2 ).name() << std::endl;
// Or you can access elements directly
std::complex<Real> z = sc()(0)(0);
std::cout << "z = " << z << std::endl;
sc()(3)(2) = std::complex<Real>{3.141,-3.141};
std::cout << "sc()(3)(2) = " << sc()(3)(2) << std::endl;
return true;
}
template <typename T>
void DebugGridTensorTest_print( int i )
{
// std::cout << i << " : " << EigenIO::is_tensor<T>::value
// << ", Rank " << EigenIO::Traits<T>::Rank
// << ", count " << EigenIO::Traits<T>::count
// << std::endl;
}
// begin() and end() are the minimum necessary to support range-for loops
// should really turn this into an iterator ...
template<typename T, int N>
class TestObject {
public:
using value_type = T;
private:
value_type * m_p;
public:
TestObject() {
m_p = reinterpret_cast<value_type *>(std::malloc(N * sizeof(value_type)));
}
~TestObject() { std::free(m_p); }
inline value_type * begin(void) { return m_p; }
inline value_type * end(void) { return m_p + N; }
};
template<typename ET> typename std::enable_if<EigenIO::is_tensor<ET>::value>::type
dump_tensor(const ET & et, const char * psz = nullptr) {
if( psz )
std::cout << psz << ": ";
else
std::cout << "Unnamed tensor: ";
Serializable::WriteMember( std::cout, et );
}
template <int Options>
void EigenSliceExample()
{
std::cout << "Eigen example, Options = " << Options << std::endl;
using T2 = Eigen::Tensor<int, 2, Options>;
T2 a(4, 3);
a.setValues({{0, 100, 200}, {300, 400, 500},
{600, 700, 800}, {900, 1000, 1100}});
std::cout << "a\n" << a << std::endl;
dump_tensor( a, "a" );
Eigen::array<typename T2::Index, 2> offsets = {0, 1};
Eigen::array<typename T2::Index, 2> extents = {4, 2};
T2 slice = a.slice(offsets, extents);
std::cout << "slice\n" << slice << std::endl;
dump_tensor( slice, "slice" );
std::cout << "\n========================================" << std::endl;
}
template <int Options>
void EigenSliceExample2()
{
using TestScalar = std::complex<float>;
using T3 = Eigen::Tensor<TestScalar, 3, Options>;
using T2 = Eigen::Tensor<TestScalar, 2, Options>;
T3 a(2,3,4);
std::cout << "Initialising a:";
TestScalar f{ 0 };
const TestScalar Inc{ 1, -1 };
for( auto &c : a ) {
c = f;
f += Inc;
}
std::cout << std::endl;
std::cout << "Validating a (Eigen::" << ( ( Options & Eigen::RowMajor ) ? "Row" : "Col" ) << "Major):" << std::endl;
f = 0;
for( int i = 0 ; i < a.dimension(0) ; i++ )
for( int j = 0 ; j < a.dimension(1) ; j++ )
for( int k = 0 ; k < a.dimension(2) ; k++ ) {
std::cout << " a(" << i << "," << j << "," << k << ")=" << a(i,j,k) << std::endl;
assert( ( Options & Eigen::RowMajor ) == 0 || a(i,j,k) == f );
f += Inc;
}
//std::cout << std::endl;
//std::cout << "a initialised to:\n" << a << std::endl;
dump_tensor( a, "a" );
std::cout << std::endl;
Eigen::array<typename T3::Index, 3> offsets = {0,1,1};
Eigen::array<typename T3::Index, 3> extents = {1,2,2};
T3 b;
b = a.slice( offsets, extents );//.reshape(NewExtents);
std::cout << "b = a.slice( offsets, extents ):\n" << b << std::endl;
dump_tensor( b, "b" );
T2 c(3,4);
c = a.chip(0,1);
std::cout << "c = a.chip(0,0):\n" << c << std::endl;
dump_tensor( c, "c" );
//T2 d = b.reshape(extents);
//std::cout << "b.reshape(extents) is:\n" << d << std::endl;
std::cout << "\n========================================" << std::endl;
}
void DebugFelixTensorTest( void )
{
unsigned int Nmom = 2;
unsigned int Nt = 2;
unsigned int N_1 = 2;
unsigned int N_2 = 2;
unsigned int N_3 = 2;
using BaryonTensorSet = Eigen::Tensor<Complex, 6, Eigen::RowMajor>;
BaryonTensorSet BField3(Nmom,4,Nt,N_1,N_2,N_3);
std::vector<Complex> Memory(Nmom * Nt * N_1 * N_2 * N_3 * 2);
using BaryonTensorMap = Eigen::TensorMap<BaryonTensorSet>;
BaryonTensorMap BField4 (&Memory[0], Nmom,4,Nt,N_1,N_2,N_3);
EigenSliceExample<Eigen::RowMajor>();
EigenSliceExample<0>();
EigenSliceExample2<Eigen::RowMajor>();
EigenSliceExample2<0>();
}
bool DebugGridTensorTest( void )
{
DebugFelixTensorTest();
typedef Complex t1;
typedef iScalar<t1> t2;
typedef iVector<t1, Ns> t3;
typedef iMatrix<t1, Nc> t4;
typedef iVector<iMatrix<t1,1>,4> t5;
typedef iScalar<t5> t6;
typedef iMatrix<t6, 3> t7;
typedef iMatrix<iVector<iScalar<t7>,4>,2> t8;
int i = 1;
DebugGridTensorTest_print<t1>( i++ );
DebugGridTensorTest_print<t2>( i++ );
DebugGridTensorTest_print<t3>( i++ );
DebugGridTensorTest_print<t4>( i++ );
DebugGridTensorTest_print<t5>( i++ );
DebugGridTensorTest_print<t6>( i++ );
DebugGridTensorTest_print<t7>( i++ );
DebugGridTensorTest_print<t8>( i++ );
//using TOC7 = TestObject<std::complex<double>, 7>;
using TOC7 = t7;
TOC7 toc7;
constexpr std::complex<double> Inc{1,-1};
std::complex<double> Start{Inc};
for( auto &x : toc7 ) {
x = Start;
Start += Inc;
}
i = 0;
std::cout << "toc7:";
for( auto x : toc7 ) std::cout << " [" << i++ << "]=" << x;
std::cout << std::endl;
//t2 o2;
//auto a2 = TensorRemove(o2);
//t3 o3;
//t4 o4;
//auto a3 = TensorRemove(o3);
//auto a4 = TensorRemove(o4);
return true;
}
bool ConvertPeramb(const char * pszSource, const char * pszDest) {
Grid::Hadrons::MDistil::PerambTensor p(Hadrons::MDistil::PerambIndexNames);
p.ReadBinary( pszSource );
p.write(pszDest);
return true;
}
#endif
int main(int argc, char *argv[]) int main(int argc, char *argv[])
{ {
#ifdef DEBUG
// Debug only - test of Eigen::Tensor
//if( DebugEigenTest() ) return 0;
//if(DebugGridTensorTest()) return 0;
//if(ConvertPeramb("PerambL_100_tsrc0.3000","PerambL_100_tsrc0.3000")) return 0;
#endif
// Decode command-line parameters. 1st one is which test to run // Decode command-line parameters. 1st one is which test to run
int iTestNum = -1; int iTestNum = -1;
@ -948,31 +325,10 @@ int main(int argc, char *argv[])
// For now perform free propagator test - replace this with distillation test(s) // For now perform free propagator test - replace this with distillation test(s)
LOG(Message) << "====== Creating xml for test " << iTestNum << " ======" << std::endl; LOG(Message) << "====== Creating xml for test " << iTestNum << " ======" << std::endl;
//const unsigned int nt = GridDefaultLatt()[Tp];
switch(iTestNum) { switch(iTestNum) {
case 0: default: // 0
test_Global( application ); LOG(Message) << "Computing Meson 2pt-function" << std::endl;
test_LapEvec( application );
break;
case 1:
test_Global( application );
test_LapEvec( application );
test_Perambulators( application );
break;
default: // 2
test_Global( application );
test_LapEvec( application );
test_Perambulators( application );
test_DistilVectors( application );
break;
case 3:
test_Global( application );
test_LapEvec( application );
test_LoadPerambulators( application );
test_DistilVectors( application );
break;
case 4:
test_Global( application ); test_Global( application );
test_LapEvec( application ); test_LapEvec( application );
test_Perambulators( application ); test_Perambulators( application );
@ -980,7 +336,17 @@ int main(int argc, char *argv[])
test_MesonField( application, "Phi", "_phi" ); test_MesonField( application, "Phi", "_phi" );
test_MesonField( application, "Rho", "_rho" ); test_MesonField( application, "Rho", "_rho" );
break; break;
case 5: case 1:
LOG(Message) << "Computing Meson 2pt-function by loading perambulators" << std::endl;
test_Global( application );
test_LapEvec( application );
test_LoadPerambulators( application );
test_DistilVectors( application );
test_MesonField( application, "Phi", "_phi" );
test_MesonField( application, "Rho", "_rho" );
break;
case 2:
LOG(Message) << "Computing Meson 2pt-function for two quark flavours" << std::endl;
test_Global( application ); test_Global( application );
test_LapEvec( application ); test_LapEvec( application );
test_Perambulators( application ); test_Perambulators( application );
@ -990,69 +356,13 @@ int main(int argc, char *argv[])
test_MesonField( application, "SPhi", "S_phi" ); test_MesonField( application, "SPhi", "S_phi" );
test_MesonField( application, "SRho", "S_rho" ); test_MesonField( application, "SRho", "S_rho" );
break; break;
#ifdef DISTIL_PRE_RELEASE case 3:
case 6: // 3 LOG(Message) << "Computing Meson 2pt-function with current insertion" << std::endl;
test_Global( application ); test_Global( application );
test_LapEvec( application ); test_LapEvec( application );
test_Perambulators( application ); test_Perambulators( application );
test_g5_sinks( application );
test_MesonSink( application ); test_MesonSink( application );
break; break;
case 7: // 3
test_Global( application );
test_LapEvec( application );
test_Perambulators( application );
test_DistilVectors( application );
test_BaryonFieldPhi( application );
test_BaryonFieldRho( application );
break;
#endif
case 8: // 3
test_Global( application );
test_LapEvec( application );
test_Perambulators( application );
test_DistilVectors( application );
test_MesonField( application, "Phi", "_phi" );
test_MesonField( application, "Rho", "_rho" );
break;
#ifdef DISTIL_PRE_RELEASE
case 9: // 3
test_Global( application );
test_Solver( application );
test_Baryon2pt( application );
break;
case 10: // 3
test_Global( application );
test_LapEvec( application );
test_Perambulators( application );
test_g5_sinks( application );
test_em( application );
test_Aslash( application );
break;
case 11: // 3
test_Global( application );
test_LapEvec( application );
test_Perambulators( application );
test_DistilVectors( application );
test_BaryonFieldPhi2( application );
test_BaryonFieldRho2( application );
break;
#endif
case 12: // 3
test_Global( application );
test_LapEvec( application );
test_Perambulators( application, "S" );
test_em( application );
test_AslashSeq( application );
test_PerambulatorsSolve( application );
test_DistilVectorsSS( application, "AslashSeq", nullptr, "S" );
test_MesonField( application, "AslashSeq" );
break;
case 13:
test_Global( application );
test_LapEvec( application );
test_MultiPerambulators( application );
break;
} }
// execution // execution
static const char XmlFileName[] = "test_distil.xml"; static const char XmlFileName[] = "test_distil.xml";