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Stackspinblock.h
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Stackspinblock.h
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#ifndef STACKSPINBLOCK_HEADER
#define STACKSPINBLOCK_HEADER
#include <list>
#include <boost/serialization/map.hpp>
#include <boost/serialization/shared_ptr.hpp>
#include <boost/serialization/vector.hpp>
#include "Stack_op_components.h"
#include "multiarray.h"
#include "boost/variant.hpp"
#include "sweep_params.h"
#include <newmat.h>
#include "perturb.h"
namespace SpinAdapted{
class StackWavefunction;
class StackDensityMatrix;
class Csf;
class StateInfo;
boost::shared_ptr<StackOp_component_base> make_new_stackop(const opTypes &optype, const bool &is_core);
class StackSpinBlock
{
private:
friend class boost::serialization::access;
template<class Archive>
void serialize(Archive & ar, const unsigned int version)
{
ar & localstorage;
ar & name;
ar & complementary;
ar & normal;
ar & direct;
ar & loopblock;
ar & sites;
ar & complementary_sites ;
ar & integralIndex;
//FIX ME!! remove register_type stuff and add BOOST_CLASS_EXPORT to op_components.h (will take longer to compile)
ar.register_type(static_cast<StackOp_component<StackCre> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackDes> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCreDes> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackDesCre> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCreCre> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackDesDes> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCreDesComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackDesCreComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackDesDesComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCreCreComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCreCreDesComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCreDesDesComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackHam> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackOverlap> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCDD_CreDesComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCDD_DesDesComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCCD_sum> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCCD_CreDesComp> *>(NULL));
ar.register_type(static_cast<StackOp_component<StackCCD_CreCreComp> *>(NULL));
ar & ops;
}
private:
std::map<opTypes, boost::shared_ptr<StackOp_component_base> > ops;
bool complementary;
bool normal;
bool loopblock;
bool localstorage;
bool direct;
int name;
int integralIndex;
StackSpinBlock* leftBlock;
StackSpinBlock* rightBlock;
boost::shared_ptr<TwoElectronArray> twoInt;
StateInfo braStateInfo;
StateInfo ketStateInfo;
std::vector<int> sites;
std::vector<int> complementary_sites;
std::vector<int> nonactive_orbs;
long totalMemory;
double* data;
long additionalMemory;
double* additionaldata;
public:
StackSpinBlock (const StateInfo& s, int integralIndex);
//These are the constructors
StackSpinBlock();
//makes a shallow copy
StackSpinBlock (const StackSpinBlock& b);
//can only be called after the data has been initialized
StackSpinBlock (int start, int finish, int integralIndex, bool implicitTranspose, bool is_complement = false);
StackSpinBlock (int start, int finish, int integralIndex, std::vector<int> non_active_orbs, bool implicitTranspose, bool is_complement = false);
//can only be called before the data is initialized
void BuildTensorProductBlock (std::vector<int>& new_sites);
void recreateStateInfo(int condition);
void collectQuanta();
//These functions need to be called before the required memory can be calculated
//These functions decide what operators are to be built and stored in memory
void default_op_components(bool complementary_, bool implicitTranspose);
void default_op_components(bool direct, bool haveNormops, bool haveCompops, bool implicitTranspose);
void nevpt_op_components(bool direct, StackSpinBlock& lBlock, StackSpinBlock& rBlock, const perturber& pb);
void setstoragetype(Storagetype st);
void set_big_components();
void initialise_op_array(opTypes optype, bool is_core);
//these will be tricky to implement
void addAdditionalOps() ;
void addAllCompOps() ;
void addOneIndexNormOps() ;
void addOneIndexOps() ;
void messagePassTwoIndexOps() ;
void formTwoIndexOps() ;
void removeAdditionalOps() ;
void sendcompOps(StackOp_component_base& opcomp, int I, int J, int optype, int compsite) ;
void recvcompOps(StackOp_component_base& opcomp, int I, int J, int optype) ;
//simple functions
const boost::shared_ptr<TwoElectronArray> get_twoInt() const {return twoInt;}
void set_twoInt(int integralIndex);
int get_integralIndex() const {return integralIndex;}
int& set_integralIndex() {return integralIndex;}
const StateInfo& get_stateInfo() const {return ketStateInfo;}
const StateInfo& get_braStateInfo() const {return braStateInfo;}
const StateInfo& get_ketStateInfo() const {return ketStateInfo;}
StateInfo& set_braStateInfo() {return braStateInfo;}
StateInfo& set_ketStateInfo() {return ketStateInfo;}
static std::vector<int> make_complement(const std::vector<int>& sites);
void printOperatorSummary();
int size() const { return sites.size(); }
int get_name() const {return name;}
std::vector<int>& set_sites() {return sites;}
const std::vector<int>& get_sites() const {return sites;}
const std::vector<int>& get_complementary_sites() const {return complementary_sites;}
bool is_normal() const {return normal;}
bool is_complementary() const {return complementary;}
bool is_loopblock() const {return loopblock;}
bool is_direct() const {return direct;}
bool getlocalstorage() const {return localstorage;}
StackSpinBlock* get_leftBlock() const {return leftBlock;}
StackSpinBlock* get_rightBlock() const {return rightBlock;}
const vector<int>& nonactive_orb() const { return nonactive_orbs;}
vector<int>& nonactive_orb() { return nonactive_orbs;}
const int& nonactive_orb(int i) const { return nonactive_orbs[i];}
int& nonactive_orb(int i) { return nonactive_orbs[i];}
//related to retriving information from oparray
void CleanUpOperators();
void erase(opTypes optype) {assert(has(optype)); ops.erase(optype);}
boost::shared_ptr<StackOp_component_base>& set_op_array(opTypes optype){assert(has(optype));return ops.find(optype)->second;}
StackOp_component_base& get_op_array(opTypes optype){assert(has(optype));return *(ops.find(optype)->second);}
const StackOp_component_base& get_op_array(opTypes optype) const {assert(has(optype));return *(ops.find(optype)->second);}
bool has(opTypes optype) const
{
if(ops.find(optype) != ops.end())
return true;
else
return false;
}
boost::shared_ptr<StackSparseMatrix> get_op_rep(const opTypes &optypes, const SpinQuantum& s, int i=-1, int j=-1, int k=-1,int l = -1) {
assert(has(optypes));
StackOp_component_base& opbase = *ops.find(optypes)->second;
vector<SpinQuantum> temp(1, s);
return opbase.get_op_rep(temp, i, j, k, l);
}
const boost::shared_ptr<StackSparseMatrix> get_op_rep(const opTypes &optypes, const SpinQuantum& s, int i=-1, int j=-1, int k=-1, int l=-1) const {
assert(has(optypes));
StackOp_component_base& opbase = *ops.find(optypes)->second;
vector<SpinQuantum> temp(1, s);
return opbase.get_op_rep(temp, i, j, k, l);
}
boost::shared_ptr<StackSparseMatrix> get_op_rep(const opTypes &optypes, const std::vector<SpinQuantum>& s, int i=-1, int j=-1, int k=-1, int l=-1) {
assert(has(optypes));
StackOp_component_base& opbase = *ops.find(optypes)->second;
return opbase.get_op_rep(s, i, j, k, l);
}
const boost::shared_ptr<StackSparseMatrix> get_op_rep(const opTypes &optypes, const vector<SpinQuantum>& s, int i=-1, int j=-1, int k=-1, int l= -1) const {
assert(has(optypes));
StackOp_component_base& opbase = *ops.find(optypes)->second;
return opbase.get_op_rep(s, i, j, k, l);
}
boost::shared_ptr<StackSparseMatrix> get_op_rep(const opTypes &optypes, const std::map< std::string, std::vector<SpinQuantum> >& s, int i=-1, int j=-1, int k=-1, int l= -1) {
assert(has(optypes));
StackOp_component_base& opbase = *ops.find(optypes)->second;
return opbase.get_op_rep(s, i, j, k, l);
}
const boost::shared_ptr<StackSparseMatrix> get_op_rep(const opTypes &optypes, const std::map< std::string, std::vector<SpinQuantum> >& s, int i=-1, int j=-1, int k=-1, int l= -1) const {
assert(has(optypes));
StackOp_component_base& opbase = *ops.find(optypes)->second;
return opbase.get_op_rep(s, i, j, k, l);
}
long memoryUsed() {return totalMemory;}
long additionalMemoryUsed() {return additionalMemory;}
void deallocate();
double* getdata() {return data;}
void moveToNewMemory(double* pData);
void operator= (const StackSpinBlock& b);
long build_iterators();
void build_operators(std::vector<Csf >& s, std::vector< std::vector<Csf> >& ladders);
void build_operators();
void deallocate_coreops();
void build_and_renormalise_operators(const std::vector<Matrix>& rotateMatrix, const StateInfo *newStateInfo);
void build_and_renormalise_operators(const std::vector<Matrix>& leftMat, const StateInfo *bra, const std::vector<Matrix>& rightMat, const StateInfo *ket);
void renormalise_transform(const std::vector<Matrix>& rotateMatrix, const StateInfo *stateinfo);
void renormalise_transform(const std::vector<Matrix>& leftMat, const StateInfo *bra, const std::vector<Matrix>& rightMat, const StateInfo *ket);
void BuildSumBlock(int condition, StackSpinBlock& b_1, StackSpinBlock& b_2, bool collectQuanta = true, StateInfo* compState=0);
void BuildSumBlock(int condition, StackSpinBlock& lBlock, StackSpinBlock& rBlock, const std::vector<SpinQuantum>& braquantum, const std::vector<SpinQuantum>& ketquantum, bool collectQuanta= true);
void BuildSumBlockSkeleton(int condition, StackSpinBlock& lBlock, StackSpinBlock& rBlock, bool collectQuanta = true, StateInfo* compState=0);
void BuildSumBlockSkeleton(int condition, StackSpinBlock& lBlock, StackSpinBlock& rBlock, const std::vector<SpinQuantum>& braquantum, const std::vector<SpinQuantum>& ketquantum, bool collectQuanta= true);
void BuildSlaterBlock (std::vector<int> sts, std::vector<SpinQuantum> qnumbers, std::vector<int> distribution, bool random,
const bool haveNormops);
void BuildSingleSlaterBlock(std::vector<int> sts);
void set_loopblock(bool p_loopblock){loopblock = p_loopblock;}
friend ostream& operator<< (ostream& os, const StackSpinBlock& b);
void multiplyH(StackWavefunction& c, StackWavefunction* v, int num_threads) const;
void multiplyH_2index(StackWavefunction& c, StackWavefunction* v, int num_threads) const;
void multiplyOverlap(StackWavefunction& c, StackWavefunction* v, int num_threads) const;
void multiplyCDD_sum(StackWavefunction& c, StackWavefunction* v, int num_threads) const;
void multiplyCCD_sum(StackWavefunction& c, StackWavefunction* v, int num_threads) const;
void diagonalH(DiagonalMatrix& e) const;
void clear();
void RenormaliseFrom (std::vector<double> &energies, std::vector<double> &spins, double &error, std::vector<Matrix>& rotateMatrix,
const int keptstates, const int keptqstates, const double tol, StackSpinBlock& big,
const guessWaveTypes &guesswavetype, const double noise, const double additional_noise, const bool &onedot, StackSpinBlock& system,
StackSpinBlock& sysDot, StackSpinBlock& environment, const bool& dot_with_sys, const bool& warmUp, int sweepiter,
int currenroot, std::vector<StackWavefunction>& lowerStates, StackDensityMatrix* d=0);
void transform_operators(std::vector<Matrix>& rotateMatrix);
void transform_operators(std::vector<Matrix>& leftrotateMatrix, std::vector<Matrix>& rightrotateMatrix, bool clearRightBlock = true, bool clearLeftBlock = true);
static StackSpinBlock buildBigEdgeBlock(int start, int end, bool haveNorm, bool haveComp, int p_integralIndex, bool implicitTranspose);
//static StackSpinBlock buildBigEdgeBlock (int start, int finish, int p_integralIndex, bool implicitTranspose);
static void restore (bool forward, const vector<int>& sites, StackSpinBlock& b, int left, int right, char* name=0);//left and right are the bra and ket states and the name is the type of the MPO (currently only H)
static void make_iterator(StackSpinBlock& b, opTypes op, int* data, int oneIndex, int numIndices) ;
static void store (bool forward, const vector<int>& sites, StackSpinBlock& b, int left, int right, char* name=0);//left and right are the bra and ket states and the name is the type of the MPO (currently only H)
void Save (std::ofstream &ofs);
void Load (std::ifstream &ifs);
};
double makeRotateMatrix(StackDensityMatrix& tracedMatrix, vector<Matrix>& rotateMatrix, const int& keptstates, const int& keptqstates, std::vector<DiagonalMatrix> *eigs =0);
void initialiseSingleSiteBlocks(std::vector<StackSpinBlock>& stackblocks, int integralIndex);
}
#endif