PsiCCSD (const Ref < KeyVal > &)
PsiCCSD (StateIn &)
void save_data_state (StateOut &)
Save the base classes (with save_data_state) and the members in the same order that the StateIn CTOR initializes them.
bool analytic_gradient_implemented () const
must overload this in a derived class if analytic gradient can be computed
PsiCC (const Ref < KeyVal > &)
PsiCC (StateIn &)
virtual const RefSCMatrix & T1 (SpinCase1 spin1)
return T amplitudes of rank 1. The amplitudes are expressed in terms of Psi3 orbitals (symmetry-blocked).
virtual const RefSCMatrix & T2 (SpinCase2 spin2)
return T amplitudes of rank 2. The amplitudes are expressed in terms of Psi3 orbitals (symmetry-blocked).
virtual Ref < DistArray4 > T2_da4 (SpinCase2 spin2, std::string dpdkey="t")
return T amplitudes of rank 2.
virtual const RefSCMatrix & Tau2 (SpinCase2 spin2)
return Tau2 amplitudes. The amplitudes are expressed in terms of Psi3 orbitals (symmetry-blocked).
virtual const RefSCMatrix & Lambda1 (SpinCase1 spin1)
return Lambda amplitudes of rank 1
virtual const RefSCMatrix & Lambda2 (SpinCase2 spin2)
return Lambda amplitudes of rank 2
virtual Ref < DistArray4 > Lambda2_da4 (SpinCase2 spin2)
return T amplitudes of rank 2. The amplitudes are expressed in terms of Psi3 orbitals (symmetry-blocked)
void obsolete ()
Marks all results as being out of date.
PsiCorrWavefunction (const Ref < KeyVal > &)
A KeyVal constructor is used to generate a PsiCorrWavefunction object from the input.
PsiCorrWavefunction (StateIn &)
void save_data_state (StateOut &)
Save the base classes (with save_data_state) and the members in the same order that the StateIn CTOR initializes them.
void print (std::ostream &os) const
Print information about the object.
double magnetic_moment () const
Computes the S (or J) magnetic moment of the target state(s), in units of .
void set_desired_value_accuracy (double acc)
sets the desired value accuracy
void compute ()
Recompute at least the results that have compute true and are not already computed.
void obsolete ()
Marks all results as being out of date.
void symmetry_changed ()
Call this if you have changed the molecular symmetry of the molecule contained by this MolecularEnergy .
RefSymmSCMatrix density ()
reimplementation of PsiWavefunction::density()
const Ref < PsiSCF > & reference () const
int nelectron ()
Number of electrons.
unsigned int nfzc () const
total # of frozen doubly-occupied orbitals
unsigned int nfzv () const
total # of frozen unoccupied orbitals
virtual const Ref < OrbitalSpace > & orbs_sb (SpinCase1 spin)
symmetry-blocked space of MO's from Psi3 the default implementation returns the orbitals from reference() can be overridden if this wfn changes reference orbitals
const std::vector< unsigned int > & frozen_docc () const
const std::vector< unsigned int > & frozen_uocc () const
const std::vector< unsigned int > docc_act ()
const std::vector< unsigned int > socc ()
const std::vector< unsigned int > uocc_act ()
const std::vector< unsigned int > docc ()
const std::vector< unsigned int > uocc ()
virtual double reference_energy ()
reference energy
RefSymmSCMatrix mo_density (SpinCase1 spin)
return one-particel density matrix in symmetry-blocked orbitals
RefSymmSCMatrix twopdm_dirac (const SpinCase2 &pairspin)
produces 2-RDM for spin case pairspin
RefSymmSCMatrix twopdm_dirac ()
produces spin-free 2-RDM
void print_onepdm_vec (FILE *output, const RefSCVector &opdm, double TOL)
void print_onepdm_mat (FILE *output, const RefSymmSCMatrix &opdm, double TOL)
void print_twopdm_mat (FILE *output, const RefSymmSCMatrix &tpdm, double TOL)
void print_twopdm_arr (FILE *output, double *tpdm, double TOL)
PsiWavefunction (const Ref < KeyVal > &)
The KeyVal constructor.
PsiWavefunction (StateIn &)
void save_data_state (StateOut &)
Save the base classes (with save_data_state) and the members in the same order that the StateIn CTOR initializes them.
virtual void write_basic_input (int conv)
Writes out Psi input file entries specific to this PsiWavefunction .
void compute ()
Recompute at least the results that have compute true and are not already computed.
void print (std::ostream &o=ExEnv::out0 ()) const
Print information about the object.
int nirrep () const
Ref < PsiExEnv > exenv () const
Return an associated PsiExEnv object.
Ref < PsiInput > get_psi_input () const
Return an associated PsiInput object.
double nuclear_repulsion_energy ()
return Psi3 nuclear repulsion energy
void obsolete ()
Marks all results as being out of date.
void symmetry_changed ()
Call this if you have changed the molecular symmetry of the molecule contained by this MolecularEnergy .
Wavefunction (StateIn &)
Wavefunction (const Ref < KeyVal > &)
The KeyVal constructor.
void save_data_state (StateOut &)
Save the base classes (with save_data_state) and the members in the same order that the StateIn CTOR initializes them.
double density (const SCVector3 &)
double density_gradient (const SCVector3 &, double *)
double natural_orbital (const SCVector3 &r, int iorb)
double natural_orbital_density (const SCVector3 &r, int orb, double *orbval=0)
double orbital (const SCVector3 &r, int iorb, const RefSCMatrix &orbs)
void orbitals (const SCVector3 &r, const RefSCMatrix &orbs, RefSCVector &values)
double orbital_density (const SCVector3 &r, int iorb, const RefSCMatrix &orbs, double *orbval=0)
double total_charge () const
Returns the total charge of the system.
virtual RefSymmSCMatrix ao_density ()
Returns the AO density.
virtual RefSCMatrix natural_orbitals ()
Returns the natural orbitals, in SO basis.
virtual RefDiagSCMatrix natural_density ()
Returns the natural density (a diagonal matrix).
int spin_polarized ()
Return 1 if the magnetic moment != 0.
int dk () const
Returns the level the of the Douglas-Kroll approximation.
virtual RefSymmSCMatrix alpha_density ()
Return alpha electron densities in the SO basis.
virtual RefSymmSCMatrix beta_density ()
Return beta electron densities in the SO basis.
virtual RefSymmSCMatrix alpha_ao_density ()
Return alpha electron densities in the AO basis.
virtual RefSymmSCMatrix beta_ao_density ()
Return beta electron densities in the AO basis.
virtual RefSCMatrix nao (double *atom_charges=0)
returns the ao to nao transformation matrix
virtual RefSymmSCMatrix overlap ()
Returns the SO overlap matrix.
virtual RefSymmSCMatrix core_hamiltonian_for_basis (const Ref < GaussianBasisSet > &bas, const Ref < GaussianBasisSet > &pbas=0)
Returns the SO core Hamiltonian in the given basis and momentum basis.
virtual RefSymmSCMatrix core_hamiltonian ()
Returns the SO core Hamiltonian.
RefSymmSCMatrix core_hamiltonian_nr (const Ref < GaussianBasisSet > &bas)
void nuclear_repulsion_energy_gradient (double *g)
Computes the nuclear repulsion gradient.
virtual void nuclear_repulsion_energy_gradient (double **g)
Computes the nuclear repulsion gradient.
RefSCDimension ao_dimension ()
Atomic orbital dimension.
RefSCDimension so_dimension ()
Symmetry adapted orbital dimension.
RefSCDimension oso_dimension ()
Orthogonalized symmetry adapted orbital dimension.
Ref < SCMatrixKit > basis_matrixkit ()
Matrix kit for AO, SO , orthogonalized SO , and MO dimensioned matrices.
Ref < Molecule > molecule () const
Returns the Molecule .
Ref < GaussianBasisSet > basis () const
Returns the basis set.
Ref < GaussianBasisSet > momentum_basis () const
Returns the basis used for p^2 in the DK correction.
Ref < GaussianBasisSet > atom_basis () const
Returns the basis set describing the nuclear charge distributions.
const double * atom_basis_coef () const
Returns the coefficients of the nuclear charge distribution basis functions.
Ref < Integral > integral ()
Returns the integral evaluator.
void symmetry_changed ()
Call this if you have changed the molecular symmetry of the molecule contained by this MolecularEnergy .
RefSCMatrix so_to_orthog_so ()
Returns a matrix which does the default transform from SO 's to orthogonal SO 's.
RefSCMatrix so_to_orthog_so_inverse ()
Returns the inverse of the transformation returned by so_to_orthog_so.
OverlapOrthog::OrthogMethod orthog_method () const
Returns the orthogonalization method.
virtual void set_orthog_method (const OverlapOrthog::OrthogMethod &)
(Re)Sets the orthogonalization method and makes this obsolete.
double lindep_tol () const
Returns the tolerance for linear dependencies.
void set_lindep_tol (double)
Re(Sets) the tolerance for linear dependencies.
void obsolete ()
Marks all results as being out of date.
void print (std::ostream &=ExEnv::out0 ()) const
Print information about the object.
void writeorbitals ()
output orbitals to some files to facilitate plotting, with the help of the WriteOrbital class.
MolecularEnergy (const MolecularEnergy &)
MolecularEnergy (const Ref < KeyVal > &)
The KeyVal constructor.
MolecularEnergy (StateIn &)
void set_checkpoint ()
Set up checkpointing.
void set_checkpoint_file (const char *)
void set_checkpoint_freq (int freq)
bool if_to_checkpoint () const
Check if need to checkpoint.
const char * checkpoint_file () const
int checkpoint_freq () const
MolecularEnergy & operator= (const MolecularEnergy &)
virtual double energy ()
A wrapper around value() ;.
virtual RefSCDimension moldim () const
void guess_hessian (RefSymmSCMatrix &)
Compute a quick, approximate hessian.
RefSymmSCMatrix inverse_hessian (RefSymmSCMatrix &)
int gradient_implemented () const
Reports whether gradient is implemented either analytically or using MolecularGradient object.
int hessian_implemented () const
Reports whether hessian is implemented either analytically or using MolecularHessian object.
void set_desired_gradient_accuracy (double acc)
These functions overload their Function counterparts.
void set_desired_hessian_accuracy (double acc)
void set_molhess (const Ref < MolecularHessian > &molhess)
Use this function to provide MolecularHessian object that will be used to compute hessian.
const Ref < MolecularHessian > & molhess () const
RefSymmSCMatrix hessian ()
Will throw if hessian_implemented() returns 0.
void set_molgrad (const Ref < MolecularGradient > &molgrad)
Use this function to provide MolecularGradient object that will be used to compute gradient.
const Ref < MolecularGradient > & molgrad () const
RefSCVector gradient ()
Will throw if gradient_implemented() returns 0.
void set_x (const RefSCVector &)
Set and retrieve the coordinate values.
RefSCVector get_cartesian_x ()
Return the cartesian coordinates.
RefSCVector get_cartesian_gradient ()
Return the cartesian gradient.
RefSymmSCMatrix get_cartesian_hessian ()
Return the cartesian hessian.
Ref < MolecularCoor > molecularcoor ()
Ref < NonlinearTransform > change_coordinates ()
An optimizer can call change coordinates periodically to give the function an opportunity to change its coordinate system.
virtual void purge ()
This function purges any caches of data in MolecularEnergy .
const RefSCVector & electric_field () const
returns the electric field vector
void print_natom_3 (const RefSCVector &, const char *t=0, std::ostream &o=ExEnv::out0 ()) const
Nicely print n x 3 data that are stored in a vector.
void print_natom_3 (double **, const char *t=0, std::ostream &o=ExEnv::out0 ()) const
void print_natom_3 (double *, const char *t=0, std::ostream &o=ExEnv::out0 ()) const
int gradient_needed () const
int do_gradient (int)
virtual double actual_gradient_accuracy () const
virtual double desired_gradient_accuracy () const
AccResultRefSCVector & gradient_result ()
int hessian_needed () const
int do_hessian (int)
virtual double actual_hessian_accuracy () const
virtual double desired_hessian_accuracy () const
AccResultRefSymmSCMatrix & hessian_result ()
virtual bool desired_value_accuracy_set_to_default () const
virtual bool desired_gradient_accuracy_set_to_default () const
virtual bool desired_hessian_accuracy_set_to_default () const
RefSCVector get_x () const
const RefSCVector & get_x_no_copy () const
void print_desired_accuracy (std::ostream &=ExEnv::out0 ()) const
similar to print() , but only prins desired accuracies
virtual bool throw_if_tolerance_exceeded () const
Overridden Compute member.
Function (StateIn &)
Function (const Function &)
Function (const Ref < KeyVal > &, double funcacc=DBL_EPSILON, double gradacc=DBL_EPSILON, double hessacc=DBL_EPSILON)
The keyval constructor reads the following keywords:
Function & operator= (const Function &)
Ref < SCMatrixKit > matrixkit () const
Return the SCMatrixKit used to construct vectors and matrices.
RefSCDimension dimension () const
Return the SCDimension of the problem.
virtual double value ()
Return the value of the function.
int value_needed () const
Returns nonzero if the current value is not up-to-date.
int do_value (int)
If passed a nonzero number, compute the value the next time compute() is called.
AccResultdouble & value_result ()
virtual double actual_value_accuracy () const
Return the accuracy with which the value has been computed.
virtual double desired_value_accuracy () const
Return the accuracy with which the value is to be computed.
SavableState & operator= (const SavableState &)
void save_state (StateOut &)
Save the state of the object as specified by the StateOut object.
void save_object_state (StateOut &)
This can be used for saving state when the exact type of the object is known for both the save and the restore.
virtual void save_vbase_state (StateOut &)
Save the virtual bases for the object.
DescribedClass (const DescribedClass &)
DescribedClass & operator= (const DescribedClass &)
ClassDesc * class_desc () const MPQC__NOEXCEPT
This returns the unique pointer to the ClassDesc corresponding to the given type_info object.
const char * class_name () const
Return the name of the object's exact type.
int class_version () const
Return the version of the class.
Ref < DescribedClass > ref ()
Return this object wrapped up in a Ref smart pointer.
size_t identifier () const
Return the unique identifier for this object that can be compared for different objects of different types.
int lock_ptr () const
Lock this object.
int unlock_ptr () const
Unlock this object.
void use_locks (bool inVal)
start and stop using locks on this object
refcount_t nreference () const
Return the reference count.
refcount_t reference ()
Increment the reference count and return the new count.
refcount_t dereference ()
Decrement the reference count and return the new count.
int managed () const
Return 1 if the object is managed. Otherwise return 0.
void write_input (int conv)
Prepares a complete Psi input file. The input file is assumed to have been opened.
RefSCMatrix T1 (SpinCase1 spin, const std::string &L)
read in T1-like quantity of spincase spin using DPD label L
RefSCMatrix T2 (SpinCase2 spin, const std::string &L)
read in T2-like quantity of spincase spin using DPD label L
Ref < DistArray4 > T2_distarray4 (SpinCase2 spin, const std::string &L)
read in T2-like quantity of spincase spin using DPD label L
RefSCMatrix T1_fzc (SpinCase1 spin, const std::string &dpdlabel)
Ref < DistArray4 > T2_distarray4_fzc (SpinCase2 spin12, const std::string &dpdlabel)
RefSCMatrix Onerdm (SpinCase1 spin)
RefSCMatrix Onerdm_relax_X (SpinCase1 spin)
RefSCMatrix Onerdm_relax_D (SpinCase1 spin)
void compare_T2 (const RefSCMatrix &T2 , const RefSCMatrix &T2_ref, SpinCase2 spin12, unsigned int no1, unsigned int no2, unsigned int nv1, unsigned int nv2, double zero=1e-8) const
compare T2 and T2_ref (check that elements < zero are in the same place and elements > soft_zero have the same sign)
void dpd_start ()
initialize Psi3 DPD library
void dpd_stop ()
stop Psi3 DPD library
const Ref < OrbitalSpace > & occ_act_sb (SpinCase1 spin)
return active occupied orbital space (symmetry-blocked)
const Ref < OrbitalSpace > & vir_act_sb (SpinCase1 spin)
return active virtual orbital space (symmetry-blocked)
const Ref < OrbitalSpace > & occ_sb (SpinCase1 spin)
return occupied orbital space (symmetry-blocked)
void write_input (int conv)
Prepares a complete Psi input file. The input file is assumed to have been opened.
void write_input_frozen2restricted (int conv, bool fz2restr)
double valacc_to_refacc () const
virtual std::vector< unsigned int > map_density_to_sb ()
returns the index map that transforms indices in which densities are reported in Psi to the symmetry-blocked indices.
std::vector< unsigned int > read_occ (const Ref < KeyVal > &keyval, const char *name, size_t nirrep)
int debug () const
return the debug level
double min_orthog_res ()
double max_orthog_res ()
void copy_orthog_info (const Ref < Wavefunction > &)
void failure (const char *)
virtual void set_energy (double)
This is just a wrapper around set_value().
virtual void set_gradient (RefSCVector &)
These are passed gradients and hessian in cartesian coordinates.
virtual void set_hessian (RefSymmSCMatrix &)
void x_to_molecule ()
void molecule_to_x ()
virtual bool analytic_hessian_implemented () const
must overload this in a derived class if analytic hessian can be computed
virtual void set_value (double)
virtual void set_matrixkit (const Ref < SCMatrixKit > &)
Set the SCMatrixKit that should be used to construct the requisite vectors and matrices.
virtual void set_dimension (const RefSCDimension &)
virtual void set_actual_value_accuracy (double)
virtual void set_actual_gradient_accuracy (double)
virtual void set_actual_hessian_accuracy (double)
RefSCVector & get_x_reference ()
Get read/write access to the coordinates for modification.
void do_change_coordinates (const Ref < NonlinearTransform > &)
Change the coordinate system and apply the given transform to intermediates matrices and vectors.
SavableState (const SavableState &)
SavableState (StateIn &)
Each derived class StateIn CTOR handles the restore corresponding to calling save_object_state, save_vbase_state, and save_data_state listed above.
RefCount (const RefCount &)
RefCount & operator= (const RefCount &)