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Merge branch 'dev' of github.com:QuantumPackage/qp2 into dev

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This commit is contained in:
Anthony Scemama 2023-01-26 14:01:11 +01:00
commit 95b546f039
39 changed files with 3578 additions and 286 deletions
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262
data/basis/cc-pcvdz
View File

@ -991,4 +991,266 @@ D 1
1 1.3743000 1.0000000 1 1.3743000 1.0000000
D 1 D 1
1 0.0537000 1.00000000 1 0.0537000 1.00000000
COPPER
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1 5.430321E+06 7.801026E-06
2 8.131665E+05 6.065666E-05
3 1.850544E+05 3.188964E-04
4 5.241466E+04 1.344687E-03
5 1.709868E+04 4.869050E-03
6 6.171994E+03 1.561013E-02
7 2.406481E+03 4.452077E-02
8 9.972584E+02 1.103111E-01
9 4.339289E+02 2.220342E-01
10 1.962869E+02 3.133739E-01
11 9.104280E+01 2.315121E-01
12 4.138425E+01 7.640920E-02
13 1.993278E+01 1.103818E-01
14 9.581891E+00 1.094372E-01
15 4.234516E+00 1.836311E-02
16 1.985814E+00 -6.043084E-04
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19 8.365700E-02 3.969482E-05
20 3.626700E-02 -1.269538E-05
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1 5.430321E+06 -4.404706E-06
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19 8.365700E-02 3.731503E-04
20 3.626700E-02 -1.193171E-04
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1 5.430321E+06 9.704682E-07
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18 1.813390E-01 -2.121974E-02
19 8.365700E-02 -1.820251E+00
20 3.626700E-02 1.434585E+00
S 20
1 5.430321E+06 -3.532229E-07
2 8.131665E+05 -2.798812E-06
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4 5.241466E+04 -6.270946E-05
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8 9.972584E+02 -5.885203E-03
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11 9.104280E+01 -2.479261E-02
12 4.138425E+01 -5.984746E-03
13 1.993278E+01 1.557124E-01
14 9.581891E+00 1.436683E-01
15 4.234516E+00 8.374103E-03
16 1.985814E+00 -7.460711E-01
17 8.670830E-01 1.244367E-01
18 1.813390E-01 1.510110E+00
19 8.365700E-02 -3.477122E-01
20 3.626700E-02 -9.774169E-01
S 1
1 3.626700E-02 1.000000E+00
S 1
1 0.0157200 1.0000000
P 16
1 2.276057E+04 4.000000E-05
2 5.387679E+03 3.610000E-04
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4 6.696653E+02 9.197000E-03
5 2.841948E+02 3.266000E-02
6 1.296077E+02 9.379500E-02
7 6.225415E+01 2.082740E-01
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9 1.575827E+01 3.324930E-01
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P 16
1 2.276057E+04 -1.500000E-05
2 5.387679E+03 -1.310000E-04
3 1.749945E+03 -7.550000E-04
4 6.696653E+02 -3.359000E-03
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1 2.276057E+04 5.000000E-06
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16 4.435600E-02 4.566600E-02
P 16
1 2.276057E+04 1.100000E-05
2 5.387679E+03 9.600000E-05
3 1.749945E+03 5.900000E-04
4 6.696653E+02 2.484000E-03
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6 1.296077E+02 2.645300E-02
7 6.225415E+01 6.568900E-02
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13 9.252950E-01 9.428920E-01
14 3.529920E-01 5.446990E-01
15 1.273070E-01 -8.327660E-01
16 4.435600E-02 -1.084160E-01
P 16
1 2.276057E+04 3.000000E-06
2 5.387679E+03 2.500000E-05
3 1.749945E+03 1.470000E-04
4 6.696653E+02 6.560000E-04
5 2.841948E+02 2.351000E-03
6 1.296077E+02 7.004000E-03
7 6.225415E+01 1.613100E-02
8 3.092964E+01 2.777000E-02
9 1.575827E+01 2.756700E-02
10 8.094211E+00 -1.011500E-02
11 4.046921E+00 -8.100900E-02
12 1.967869E+00 -1.104090E-01
13 9.252950E-01 -7.173200E-02
14 3.529920E-01 1.879300E-01
15 1.273070E-01 5.646290E-01
16 4.435600E-02 4.070000E-01
P 1
1 4.435600E-02 1.000000E+00
P 1
1 0.0154500 1.0000000
D 8
1 1.738970E+02 2.700000E-03
2 5.188690E+01 2.090900E-02
3 1.934190E+01 8.440800E-02
4 7.975720E+00 2.139990E-01
5 3.398230E+00 3.359800E-01
6 1.409320E+00 3.573010E-01
7 5.488580E-01 2.645780E-01
8 1.901990E-01 1.039720E-01
D 8
1 1.738970E+02 -3.363000E-03
2 5.188690E+01 -2.607900E-02
3 1.934190E+01 -1.082310E-01
4 7.975720E+00 -2.822170E-01
5 3.398230E+00 -3.471900E-01
6 1.409320E+00 2.671100E-02
7 5.488580E-01 4.920470E-01
8 1.901990E-01 4.384220E-01
D 8
1 1.738970E+02 4.133000E-03
2 5.188690E+01 3.308500E-02
3 1.934190E+01 1.383360E-01
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5 3.398230E+00 1.698420E-01
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D 1
1 1.901990E-01 1.000000E+00
D 1
1 0.0659100 1.0000000
F 1
1 5.082100E+00 1.000000E+00
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1 1.279700E+00 1.000000E+00
F 1
1 0.4617200 1.0000000
G 1
1 3.483500E+00 1.0000000
G 1
1 1.4597900 1.0000000
$END $END

2
external/qp2-dependencies vendored

@ -1 +1 @@
Subproject commit 242151e03d1d6bf042387226431d82d35845686a Subproject commit 90ee61f5041c7c94a0c605625a264860292813a0

1
src/ao_many_one_e_ints/grad2_jmu_manu.irp.f
View File

@ -515,4 +515,3 @@ BEGIN_PROVIDER [ double precision, int2_u_grad1u_j1b2_test, (ao_num, ao_num, n_p
END_PROVIDER END_PROVIDER
! --- ! ---

23
src/ao_one_e_ints/EZFIO.cfg
View File

@ -106,3 +106,26 @@ interface: ezfio,provider,ocaml
default: 1.e-15 default: 1.e-15
ezfio_name: threshold_ao ezfio_name: threshold_ao
[n_pts_charge]
type: integer
doc: Number of point charges to be added to the potential
interface: ezfio
default: 0
[pts_charge_z]
type: double precision
doc: Charge associated to each point charge
interface: ezfio
size: (ao_one_e_ints.n_pts_charge)
[pts_charge_coord]
type: double precision
doc: Coordinate of each point charge.
interface: ezfio
size: (ao_one_e_ints.n_pts_charge,3)
[point_charges]
type: logical
doc: If |true|, point charges (see ao_one_e_ints/write_pt_charges.py) are added to the one-electron potential
interface: ezfio,provider,ocaml
default: False

272
src/ao_one_e_ints/point_charges.irp.f Normal file
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@ -0,0 +1,272 @@
! ---
BEGIN_PROVIDER [ integer, n_pts_charge ]
implicit none
BEGIN_DOC
! Number of point charges to be added to the potential
END_DOC
logical :: has
PROVIDE ezfio_filename
if (mpi_master) then
call ezfio_has_ao_one_e_ints_n_pts_charge(has)
if (has) then
write(6,'(A)') '.. >>>>> [ IO READ: n_pts_charge ] <<<<< ..'
call ezfio_get_ao_one_e_ints_n_pts_charge(n_pts_charge)
else
print *, 'ao_one_e_ints/n_pts_charge not found in EZFIO file'
stop 1
endif
endif
IRP_IF MPI_DEBUG
print *, irp_here, mpi_rank
call MPI_BARRIER(MPI_COMM_WORLD, ierr)
IRP_ENDIF
IRP_IF MPI
include 'mpif.h'
integer :: ierr
call MPI_BCAST( n_pts_charge, 1, MPI_INTEGER, 0, MPI_COMM_WORLD, ierr)
if (ierr /= MPI_SUCCESS) then
stop 'Unable to read n_pts_charge with MPI'
endif
IRP_ENDIF
call write_time(6)
END_PROVIDER
BEGIN_PROVIDER [ double precision, pts_charge_z, (n_pts_charge) ]
BEGIN_DOC
! Charge associated to each point charge.
END_DOC
implicit none
logical :: exists
PROVIDE ezfio_filename
if (mpi_master) then
call ezfio_has_ao_one_e_ints_pts_charge_z(exists)
endif
IRP_IF MPI_DEBUG
print *, irp_here, mpi_rank
call MPI_BARRIER(MPI_COMM_WORLD, ierr)
IRP_ENDIF
IRP_IF MPI
include 'mpif.h'
integer :: ierr
call MPI_BCAST(pts_charge_z, (n_pts_charge), MPI_DOUBLE_PRECISION, 0, MPI_COMM_WORLD, ierr)
if (ierr /= MPI_SUCCESS) then
stop 'Unable to read pts_charge_z with MPI'
endif
IRP_ENDIF
if (exists) then
if (mpi_master) then
write(6,'(A)') '.. >>>>> [ IO READ: pts_charge_z ] <<<<< ..'
call ezfio_get_ao_one_e_ints_pts_charge_z(pts_charge_z)
IRP_IF MPI
call MPI_BCAST(pts_charge_z, (n_pts_charge), MPI_DOUBLE_PRECISION, 0, MPI_COMM_WORLD, ierr)
if (ierr /= MPI_SUCCESS) then
stop 'Unable to read pts_charge_z with MPI'
endif
IRP_ENDIF
endif
else
integer :: i
do i = 1, n_pts_charge
pts_charge_z(i) = 0.d0
enddo
endif
print*,'Point charges '
do i = 1, n_pts_charge
print*,'i,pts_charge_z(i)',i,pts_charge_z(i)
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, pts_charge_coord, (n_pts_charge,3) ]
BEGIN_DOC
! Coordinates of each point charge.
END_DOC
implicit none
logical :: exists
PROVIDE ezfio_filename
if (mpi_master) then
call ezfio_has_ao_one_e_ints_pts_charge_coord(exists)
endif
IRP_IF MPI_DEBUG
print *, irp_here, mpi_rank
call MPI_BARRIER(MPI_COMM_WORLD, ierr)
IRP_ENDIF
IRP_IF MPI
include 'mpif.h'
integer :: ierr
call MPI_BCAST(pts_charge_coord, (n_pts_charge), MPI_DOUBLE_PRECISION, 0, MPI_COMM_WORLD, ierr)
if (ierr /= MPI_SUCCESS) then
stop 'Unable to read pts_charge_coord with MPI'
endif
IRP_ENDIF
if (exists) then
if (mpi_master) then
double precision, allocatable :: buffer(:,:)
allocate (buffer(n_pts_charge,3))
write(6,'(A)') '.. >>>>> [ IO READ: pts_charge_coord ] <<<<< ..'
call ezfio_get_ao_one_e_ints_pts_charge_coord(buffer)
integer :: i,j
do i=1,3
do j=1,n_pts_charge
pts_charge_coord(j,i) = buffer(j,i)
enddo
enddo
deallocate(buffer)
IRP_IF MPI
call MPI_BCAST(pts_charge_coord, (n_pts_charge), MPI_DOUBLE_PRECISION, 0, MPI_COMM_WORLD, ierr)
if (ierr /= MPI_SUCCESS) then
stop 'Unable to read pts_charge_coord with MPI'
endif
IRP_ENDIF
endif
else
do i = 1, n_pts_charge
pts_charge_coord(i,:) = 0.d0
enddo
endif
print*,'Coordinates for the point charges '
do i = 1, n_pts_charge
write(*,'(I3,X,3(F16.8,X))') i,pts_charge_coord(i,1:3)
enddo
END_PROVIDER
! ---
BEGIN_PROVIDER [ double precision, ao_integrals_pt_chrg, (ao_num,ao_num)]
BEGIN_DOC
! Point charge-electron interaction, in the |AO| basis set.
!
! :math:`\langle \chi_i | -\sum_A \frac{1}{|r-R_A|} | \chi_j \rangle`
!
! These integrals also contain the pseudopotential integrals.
END_DOC
implicit none
integer :: num_A, num_B, power_A(3), power_B(3)
integer :: i, j, k, l, n_pt_in, m
double precision :: alpha, beta
double precision :: A_center(3),B_center(3),C_center(3)
double precision :: overlap_x,overlap_y,overlap_z,overlap,dx,NAI_pol_mult
ao_integrals_pt_chrg = 0.d0
! if (read_ao_integrals_pt_chrg) then
!
! call ezfio_get_ao_one_e_ints_ao_integrals_pt_chrg(ao_integrals_pt_chrg)
! print *, 'AO N-e integrals read from disk'
!
! else
! if(use_cosgtos) then
! !print *, " use_cosgtos for ao_integrals_pt_chrg ?", use_cosgtos
!
! do j = 1, ao_num
! do i = 1, ao_num
! ao_integrals_pt_chrg(i,j) = ao_integrals_pt_chrg_cosgtos(i,j)
! enddo
! enddo
!
! else
!$OMP PARALLEL &
!$OMP DEFAULT (NONE) &
!$OMP PRIVATE (i,j,k,l,m,alpha,beta,A_center,B_center,C_center,power_A,power_B,&
!$OMP num_A,num_B,Z,c,c1,n_pt_in) &
!$OMP SHARED (ao_num,ao_prim_num,ao_expo_ordered_transp,ao_power,ao_nucl,pts_charge_coord,ao_coef_normalized_ordered_transp,nucl_coord,&
!$OMP n_pt_max_integrals,ao_integrals_pt_chrg,n_pts_charge,pts_charge_z)
n_pt_in = n_pt_max_integrals
!$OMP DO SCHEDULE (dynamic)
do j = 1, ao_num
num_A = ao_nucl(j)
power_A(1:3)= ao_power(j,1:3)
A_center(1:3) = nucl_coord(num_A,1:3)
do i = 1, ao_num
num_B = ao_nucl(i)
power_B(1:3)= ao_power(i,1:3)
B_center(1:3) = nucl_coord(num_B,1:3)
do l=1,ao_prim_num(j)
alpha = ao_expo_ordered_transp(l,j)
do m=1,ao_prim_num(i)
beta = ao_expo_ordered_transp(m,i)
double precision :: c, c1
c = 0.d0
do k = 1, n_pts_charge
double precision :: Z
Z = pts_charge_z(k)
C_center(1:3) = pts_charge_coord(k,1:3)
c1 = NAI_pol_mult( A_center, B_center, power_A, power_B &
, alpha, beta, C_center, n_pt_in )
c = c + Z * c1
enddo
ao_integrals_pt_chrg(i,j) = ao_integrals_pt_chrg(i,j) &
+ ao_coef_normalized_ordered_transp(l,j) &
* ao_coef_normalized_ordered_transp(m,i) * c
enddo
enddo
enddo
enddo
!$OMP END DO
!$OMP END PARALLEL
! endif
! IF(do_pseudo) THEN
! ao_integrals_pt_chrg += ao_pseudo_integrals
! ENDIF
! endif
! if (write_ao_integrals_pt_chrg) then
! call ezfio_set_ao_one_e_ints_ao_integrals_pt_chrg(ao_integrals_pt_chrg)
! print *, 'AO N-e integrals written to disk'
! endif
END_PROVIDER

3
src/ao_one_e_ints/pot_ao_ints.irp.f
View File

@ -104,6 +104,9 @@ BEGIN_PROVIDER [ double precision, ao_integrals_n_e, (ao_num,ao_num)]
IF(do_pseudo) THEN IF(do_pseudo) THEN
ao_integrals_n_e += ao_pseudo_integrals ao_integrals_n_e += ao_pseudo_integrals
ENDIF ENDIF
IF(point_charges) THEN
ao_integrals_n_e += ao_integrals_pt_chrg
ENDIF
endif endif

79
src/ao_one_e_ints/write_pt_charges.py Executable file
View File

@ -0,0 +1,79 @@
#!/usr/bin/env python
import os
import sys
# First argument is the EZFIO file
# It reads a file EZFIO_point_charges.xyz written in this way:
# charge x y z (Angstrom)
# for all charges
def zip_in_ezfio(ezfio,tmp):
tmpzip=tmp+".gz"
cmdzip="gzip -c "+tmp+" > "+tmpzip
os.system(cmdzip)
os.system("rm "+tmp)
cmdmv="mv "+tmpzip+" "+EZFIO+"/ao_one_e_ints/"+tmpzip
os.system(cmdmv)
def mv_in_ezfio(ezfio,tmp):
cmdmv="mv "+tmp+" "+EZFIO+"/ao_one_e_ints/"+tmp
os.system(cmdmv)
# Getting the EZFIO
EZFIO=sys.argv[1]
EZFIO=EZFIO.replace("/", "")
print(EZFIO)
# Reading the point charges and convert the Angstrom geometry in Bohr for QP
f = open(EZFIO+'_point_charges.xyz','r')
lines = f.readlines()
convert_angs_to_bohr=1.8897259885789233
n_charges=0
coord_x=[]
coord_y=[]
coord_z=[]
charges=[]
for line in lines:
data = line.split()
if(len(data)>0):
n_charges += 1
charges.append(str(data[0]))
coord_x.append(str(convert_angs_to_bohr*float(data[1])))
coord_y.append(str(convert_angs_to_bohr*float(data[2])))
coord_z.append(str(convert_angs_to_bohr*float(data[3])))
# Write the file containing the number of charges and set in EZFIO folder
tmp="n_pts_charge"
fncharges = open(tmp,'w')
fncharges.write(" "+str(n_charges)+'\n')
fncharges.close()
mv_in_ezfio(EZFIO,tmp)
# Write the file containing the charges and set in EZFIO folder
tmp="pts_charge_z"
fcharges = open(tmp,'w')
fcharges.write(" 1\n")
fcharges.write(" "+str(n_charges)+'\n')
for i in range(n_charges):
fcharges.write(charges[i]+'\n')
fcharges.close()
zip_in_ezfio(EZFIO,tmp)
# Write the file containing the charge coordinates and set in EZFIO folder
tmp="pts_charge_coord"
fcoord = open(tmp,'w')
fcoord.write(" 2\n")
fcoord.write(" "+str(n_charges)+' 3\n')
#fcoord.write(" "+' 3 '+str(n_charges)+' \n')
for i in range(n_charges):
fcoord.write(' '+coord_x[i]+'\n')
for i in range(n_charges):
fcoord.write(' '+coord_y[i]+'\n')
for i in range(n_charges):
fcoord.write(' '+coord_z[i]+'\n')
fcoord.close()
zip_in_ezfio(EZFIO,tmp)

2
src/bi_ort_ints/three_body_ijm.irp.f
View File

@ -60,7 +60,7 @@ BEGIN_PROVIDER [ double precision, three_e_3_idx_cycle_1_bi_ort, (mo_num, mo_num
! !
! matrix element of the -L three-body operator ON A BI ORTHONORMAL BASIS for the first cyclic permutation ! matrix element of the -L three-body operator ON A BI ORTHONORMAL BASIS for the first cyclic permutation
! !
! three_e_3_idx_direct_bi_ort(m,j,i) = <mji|-L|jim> ! three_e_3_idx_cycle_1_bi_ort(m,j,i) = <mji|-L|jim>
! !
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign ! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
! !

4
src/bi_ort_ints/three_body_ijmk.irp.f
View File

@ -195,7 +195,7 @@ BEGIN_PROVIDER [ double precision, three_e_4_idx_exch13_bi_ort, (mo_num, mo_num,
! !
! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF SINGLE EXCITATIONS AND BI ORTHO MOs ! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF SINGLE EXCITATIONS AND BI ORTHO MOs
! !
! three_e_4_idx_exch13_bi_ort(m,j,k,i) = <mjk|-L|jmi> ::: notice that i is the RIGHT MO and k is the LEFT MO ! three_e_4_idx_exch13_bi_ort(m,j,k,i) = <mjk|-L|ijm> ::: notice that i is the RIGHT MO and k is the LEFT MO
! !
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign ! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
END_DOC END_DOC
@ -241,7 +241,7 @@ BEGIN_PROVIDER [ double precision, three_e_4_idx_exch12_bi_ort, (mo_num, mo_num,
! !
! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF SINGLE EXCITATIONS AND BI ORTHO MOs ! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF SINGLE EXCITATIONS AND BI ORTHO MOs
! !
! three_e_4_idx_exch12_bi_ort(m,j,k,i) = <mjk|-L|jmi> ::: notice that i is the RIGHT MO and k is the LEFT MO ! three_e_4_idx_exch12_bi_ort(m,j,k,i) = <mjk|-L|mij> ::: notice that i is the RIGHT MO and k is the LEFT MO
! !
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign ! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
! !

6
src/bi_ort_ints/three_body_ijmkl.irp.f
View File

@ -7,7 +7,7 @@ BEGIN_PROVIDER [ double precision, three_e_5_idx_direct_bi_ort, (mo_num, mo_num,
! !
! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF DOUBLE EXCITATIONS AND BI ORTHO MOs ! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF DOUBLE EXCITATIONS AND BI ORTHO MOs
! !
! three_e_5_idx_direct_bi_ort(m,l,j,k,i) = <mjk|-L|mji> ::: notice that i is the RIGHT MO and k is the LEFT MO ! three_e_5_idx_direct_bi_ort(m,l,j,k,i) = <mlk|-L|mji> ::: notice that i is the RIGHT MO and k is the LEFT MO
! !
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign ! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
END_DOC END_DOC
@ -202,7 +202,7 @@ BEGIN_PROVIDER [ double precision, three_e_5_idx_exch13_bi_ort, (mo_num, mo_num,
! !
! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF DOUBLE EXCITATIONS AND BI ORTHO MOs ! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF DOUBLE EXCITATIONS AND BI ORTHO MOs
! !
! three_e_5_idx_exch13_bi_ort(m,l,j,k,i) = <mlk|-L|jmi> ::: notice that i is the RIGHT MO and k is the LEFT MO ! three_e_5_idx_exch13_bi_ort(m,l,j,k,i) = <mlk|-L|ijm> ::: notice that i is the RIGHT MO and k is the LEFT MO
! !
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign ! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
! !
@ -251,7 +251,7 @@ BEGIN_PROVIDER [ double precision, three_e_5_idx_exch12_bi_ort, (mo_num, mo_num,
! !
! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF DOUBLE EXCITATIONS AND BI ORTHO MOs ! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF DOUBLE EXCITATIONS AND BI ORTHO MOs
! !
! three_e_5_idx_exch12_bi_ort(m,l,j,k,i) = <mlk|-L|jmi> ::: notice that i is the RIGHT MO and k is the LEFT MO ! three_e_5_idx_exch12_bi_ort(m,l,j,k,i) = <mlk|-L|mij> ::: notice that i is the RIGHT MO and k is the LEFT MO
! !
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign ! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
! !

49
src/bi_ort_ints/total_twoe_pot.irp.f
View File

@ -199,3 +199,52 @@ END_PROVIDER
! --- ! ---
BEGIN_PROVIDER [ double precision, mo_bi_ortho_tc_two_e_jj, (mo_num,mo_num) ]
&BEGIN_PROVIDER [ double precision, mo_bi_ortho_tc_two_e_jj_exchange, (mo_num,mo_num) ]
&BEGIN_PROVIDER [ double precision, mo_bi_ortho_tc_two_e_jj_anti, (mo_num,mo_num) ]
implicit none
BEGIN_DOC
! mo_bi_ortho_tc_two_e_jj(i,j) = J_ij = <ji|W-K|ji>
! mo_bi_ortho_tc_two_e_jj_exchange(i,j) = K_ij = <ij|W-K|ji>
! mo_bi_ortho_tc_two_e_jj_anti(i,j) = J_ij - K_ij
END_DOC
integer :: i,j
double precision :: get_two_e_integral
mo_bi_ortho_tc_two_e_jj = 0.d0
mo_bi_ortho_tc_two_e_jj_exchange = 0.d0
do i=1,mo_num
do j=1,mo_num
mo_bi_ortho_tc_two_e_jj(i,j) = mo_bi_ortho_tc_two_e(j,i,j,i)
mo_bi_ortho_tc_two_e_jj_exchange(i,j) = mo_bi_ortho_tc_two_e(i,j,j,i)
mo_bi_ortho_tc_two_e_jj_anti(i,j) = mo_bi_ortho_tc_two_e_jj(i,j) - mo_bi_ortho_tc_two_e_jj_exchange(i,j)
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [double precision, tc_2e_3idx_coulomb_integrals, (mo_num,mo_num, mo_num)]
&BEGIN_PROVIDER [double precision, tc_2e_3idx_exchange_integrals,(mo_num,mo_num, mo_num)]
implicit none
BEGIN_DOC
! tc_2e_3idx_coulomb_integrals(j,k,i) = <jk|ji>
!
! tc_2e_3idx_exchange_integrals(j,k,i) = <kj|ji>
END_DOC
integer :: i,j,k,l
double precision :: get_two_e_integral
double precision :: integral
do i = 1, mo_num
do k = 1, mo_num
do j = 1, mo_num
tc_2e_3idx_coulomb_integrals(j, k,i) = mo_bi_ortho_tc_two_e(j ,k ,j ,i )
tc_2e_3idx_exchange_integrals(j,k,i) = mo_bi_ortho_tc_two_e(k ,j ,j ,i )
enddo
enddo
enddo
END_PROVIDER

2
src/bi_ortho_mos/bi_density.irp.f
View File

@ -15,6 +15,7 @@ BEGIN_PROVIDER [double precision, TCSCF_bi_ort_dm_ao_alpha, (ao_num, ao_num) ]
call dgemm( 'N', 'T', ao_num, ao_num, elec_alpha_num, 1.d0 & call dgemm( 'N', 'T', ao_num, ao_num, elec_alpha_num, 1.d0 &
, mo_l_coef, size(mo_l_coef, 1), mo_r_coef, size(mo_r_coef, 1) & , mo_l_coef, size(mo_l_coef, 1), mo_r_coef, size(mo_r_coef, 1) &
!, mo_r_coef, size(mo_r_coef, 1), mo_l_coef, size(mo_l_coef, 1) &
, 0.d0, TCSCF_bi_ort_dm_ao_alpha, size(TCSCF_bi_ort_dm_ao_alpha, 1) ) , 0.d0, TCSCF_bi_ort_dm_ao_alpha, size(TCSCF_bi_ort_dm_ao_alpha, 1) )
END_PROVIDER END_PROVIDER
@ -35,6 +36,7 @@ BEGIN_PROVIDER [ double precision, TCSCF_bi_ort_dm_ao_beta, (ao_num, ao_num) ]
call dgemm( 'N', 'T', ao_num, ao_num, elec_beta_num, 1.d0 & call dgemm( 'N', 'T', ao_num, ao_num, elec_beta_num, 1.d0 &
, mo_l_coef, size(mo_l_coef, 1), mo_r_coef, size(mo_r_coef, 1) & , mo_l_coef, size(mo_l_coef, 1), mo_r_coef, size(mo_r_coef, 1) &
!, mo_r_coef, size(mo_r_coef, 1), mo_l_coef, size(mo_l_coef, 1) &
, 0.d0, TCSCF_bi_ort_dm_ao_beta, size(TCSCF_bi_ort_dm_ao_beta, 1) ) , 0.d0, TCSCF_bi_ort_dm_ao_beta, size(TCSCF_bi_ort_dm_ao_beta, 1) )
END_PROVIDER END_PROVIDER

1
src/determinants/filter_connected.irp.f
View File

@ -96,7 +96,6 @@ subroutine filter_not_connected(key1,key2,Nint,sze,idx)
idx(0) = l-1 idx(0) = l-1
end end
subroutine filter_connected(key1,key2,Nint,sze,idx) subroutine filter_connected(key1,key2,Nint,sze,idx)
use bitmasks use bitmasks
implicit none implicit none

2
src/determinants/single_excitations.irp.f
View File

@ -28,7 +28,7 @@ BEGIN_PROVIDER [double precision, fock_operator_closed_shell_ref_bitmask, (mo_nu
integer :: occ_virt(N_int*bit_kind_size,2) integer :: occ_virt(N_int*bit_kind_size,2)
integer(bit_kind) :: key_test(N_int) integer(bit_kind) :: key_test(N_int)
integer(bit_kind) :: key_virt(N_int,2) integer(bit_kind) :: key_virt(N_int,2)
fock_operator_closed_shell_ref_bitmask = 0.d0
call bitstring_to_list_ab(ref_closed_shell_bitmask, occ, n_occ_ab, N_int) call bitstring_to_list_ab(ref_closed_shell_bitmask, occ, n_occ_ab, N_int)
do i = 1, N_int do i = 1, N_int
key_virt(i,1) = full_ijkl_bitmask(i) key_virt(i,1) = full_ijkl_bitmask(i)

8
src/determinants/slater_rules.irp.f
View File

@ -1811,12 +1811,12 @@ double precision function diag_H_mat_elem(det_in,Nint)
integer :: tmp(2) integer :: tmp(2)
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call bitstring_to_list_ab(particle, occ_particle, tmp, Nint) call bitstring_to_list_ab(particle, occ_particle, tmp, Nint)
ASSERT (tmp(1) == nexc(1)) ASSERT (tmp(1) == nexc(1)) ! Number of particles alpha
ASSERT (tmp(2) == nexc(2)) ASSERT (tmp(2) == nexc(2)) ! Number of particle beta
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call bitstring_to_list_ab(hole, occ_hole, tmp, Nint) call bitstring_to_list_ab(hole, occ_hole, tmp, Nint)
ASSERT (tmp(1) == nexc(1)) ASSERT (tmp(1) == nexc(1)) ! Number of holes alpha
ASSERT (tmp(2) == nexc(2)) ASSERT (tmp(2) == nexc(2)) ! Number of holes beta
det_tmp = ref_bitmask det_tmp = ref_bitmask
do ispin=1,2 do ispin=1,2

164
src/determinants/sparse_mat.irp.f Normal file
View File

@ -0,0 +1,164 @@
use bitmasks
subroutine filter_connected_array(key1,key2,ld,Nint,sze,idx)
use bitmasks
implicit none
BEGIN_DOC
! Filters out the determinants that are not connected by H
!
! returns the array idx which contains the index of the
!
! determinants in the array key1 that interact
!
! via the H operator with key2.
!
! idx(0) is the number of determinants that interact with key1
END_DOC
integer, intent(in) :: Nint, ld,sze
integer(bit_kind), intent(in) :: key1(Nint,2,ld)
integer(bit_kind), intent(in) :: key2(Nint,2)
integer, intent(out) :: idx(0:sze)
integer :: i,j,l
integer :: degree_x2
ASSERT (Nint > 0)
ASSERT (sze >= 0)
l=1
if (Nint==1) then
!DIR$ LOOP COUNT (1000)
do i=1,sze
degree_x2 = popcnt( xor( key1(1,1,i), key2(1,1))) &
+ popcnt( xor( key1(1,2,i), key2(1,2)))
! print*,degree_x2
if (degree_x2 > 4) then
cycle
else
idx(l) = i
l = l+1
endif
enddo
else if (Nint==2) then
!DIR$ LOOP COUNT (1000)
do i=1,sze
degree_x2 = popcnt(xor( key1(1,1,i), key2(1,1))) + &
popcnt(xor( key1(2,1,i), key2(2,1))) + &
popcnt(xor( key1(1,2,i), key2(1,2))) + &
popcnt(xor( key1(2,2,i), key2(2,2)))
if (degree_x2 > 4) then
cycle
else
idx(l) = i
l = l+1
endif
enddo
else if (Nint==3) then
!DIR$ LOOP COUNT (1000)
do i=1,sze
degree_x2 = popcnt(xor( key1(1,1,i), key2(1,1))) + &
popcnt(xor( key1(1,2,i), key2(1,2))) + &
popcnt(xor( key1(2,1,i), key2(2,1))) + &
popcnt(xor( key1(2,2,i), key2(2,2))) + &
popcnt(xor( key1(3,1,i), key2(3,1))) + &
popcnt(xor( key1(3,2,i), key2(3,2)))
if (degree_x2 > 4) then
cycle
else
idx(l) = i
l = l+1
endif
enddo
else
!DIR$ LOOP COUNT (1000)
do i=1,sze
degree_x2 = 0
!DIR$ LOOP COUNT MIN(4)
do j=1,Nint
degree_x2 = degree_x2+ popcnt(xor( key1(j,1,i), key2(j,1))) +&
popcnt(xor( key1(j,2,i), key2(j,2)))
if (degree_x2 > 4) then
exit
endif
enddo
if (degree_x2 <= 5) then
idx(l) = i
l = l+1
endif
enddo
endif
idx(0) = l-1
! print*,'idx(0) = ',idx(0)
end
BEGIN_PROVIDER [ integer, n_sparse_mat]
&BEGIN_PROVIDER [ integer, n_connected_per_det, (N_det)]
&BEGIN_PROVIDER [ integer, n_max_connected_per_det]
implicit none
BEGIN_DOC
! n_sparse_mat = total number of connections in the CI matrix
!
! n_connected_per_det(i) = number of connected determinants to the determinant psi_det(1,1,i)
!
! n_max_connected_per_det = maximum number of connected determinants
END_DOC
integer, allocatable :: idx(:)
allocate(idx(0:N_det))
integer :: i
n_sparse_mat = 0
do i = 1, N_det
call filter_connected_array(psi_det_sorted,psi_det_sorted(1,1,i),psi_det_size,N_int,N_det,idx)
n_connected_per_det(i) = idx(0)
n_sparse_mat += idx(0)
enddo
n_max_connected_per_det = maxval(n_connected_per_det)
END_PROVIDER
BEGIN_PROVIDER [ integer(bit_kind), connected_det_per_det, (N_int,2,n_max_connected_per_det,N_det)]
&BEGIN_PROVIDER [ integer(bit_kind), list_connected_det_per_det, (n_max_connected_per_det,N_det)]
implicit none
BEGIN_DOC
! connected_det_per_det(:,:,j,i) = jth connected determinant to the determinant psi_det(:,:,i)
!
! list_connected_det_per_det(j,i) = index of jth determinant in psi_det which is connected to psi_det(:,:,i)
END_DOC
integer, allocatable :: idx(:)
allocate(idx(0:N_det))
integer :: i,j
do i = 1, N_det
call filter_connected_array(psi_det_sorted,psi_det_sorted(1,1,i),psi_det_size,N_int,N_det,idx)
do j = 1, idx(0)
connected_det_per_det(1:N_int,1:2,j,i) = psi_det_sorted(1:N_int,1:2,idx(j))
list_connected_det_per_det(j,i) = idx(j)
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, sparse_h_mat, (n_max_connected_per_det, N_det)]
implicit none
BEGIN_DOC
! sparse matrix format
!
! sparse_h_mat(j,i) = matrix element between the jth connected determinant and psi_det(:,:,i)
END_DOC
integer :: i,j
double precision :: hij
do i = 1, N_det
do j = 1, n_connected_per_det(i)
call i_H_j(psi_det(1,1,i),connected_det_per_det(1,1,j,i),N_int,hij)
sparse_h_mat(j,i) = hij
enddo
enddo
END_PROVIDER

1
src/non_h_ints_mu/grad_squared.irp.f
View File

@ -299,6 +299,7 @@ BEGIN_PROVIDER [ double precision, u12sq_j1bsq, (ao_num, ao_num, n_points_final_
END_PROVIDER END_PROVIDER
! ---
! --- ! ---
BEGIN_PROVIDER [ double precision, u12_grad1_u12_j1b_grad1_j1b, (ao_num, ao_num, n_points_final_grid) ] BEGIN_PROVIDER [ double precision, u12_grad1_u12_j1b_grad1_j1b, (ao_num, ao_num, n_points_final_grid) ]

1
src/non_h_ints_mu/new_grad_tc.irp.f
View File

@ -340,6 +340,7 @@ BEGIN_PROVIDER [double precision, tc_grad_and_lapl_ao, (ao_num, ao_num, ao_num,
do i = 1, ao_num do i = 1, ao_num
do k = 1, ao_num do k = 1, ao_num
tc_grad_and_lapl_ao(k,i,l,j) = ac_mat(k,i,l,j) + ac_mat(l,j,k,i) tc_grad_and_lapl_ao(k,i,l,j) = ac_mat(k,i,l,j) + ac_mat(l,j,k,i)
!tc_grad_and_lapl_ao(k,i,l,j) = ac_mat(k,i,l,j)
enddo enddo
enddo enddo
enddo enddo

308
src/scf_utils/rh_scf_mo.irp.f Normal file
View File

@ -0,0 +1,308 @@
! ---
subroutine Roothaan_Hall_SCF_MO()
BEGIN_DOC
!
! Roothaan-Hall algorithm for SCF Hartree-Fock calculation
!
END_DOC
implicit none
double precision :: energy_SCF, energy_SCF_previous, Delta_energy_SCF
double precision :: max_error_DIIS
double precision, allocatable :: Fock_matrix_DIIS(:,:,:), error_matrix_DIIS(:,:,:)
integer :: iteration_SCF, dim_DIIS, index_dim_DIIS
integer :: i, j
double precision :: level_shift_save
double precision, allocatable :: mo_coef_save(:,:)
logical, external :: qp_stop
PROVIDE ao_md5 mo_occ level_shift
allocate( mo_coef_save(ao_num,mo_num) &
, Fock_matrix_DIIS (mo_num,mo_num,max_dim_DIIS) &
, error_matrix_DIIS(mo_num,mo_num,max_dim_DIIS) )
Fock_matrix_DIIS = 0.d0
error_matrix_DIIS = 0.d0
mo_coef_save = 0.d0
call write_time(6)
print*,'energy of the guess = ',SCF_energy
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
'====','================','================','================','================'
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
' N ', 'energy ', 'energy diff ', 'DIIS error ', 'Level shift '
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
'====','================','================','================','================'
! Initialize energies and density matrices
energy_SCF_previous = SCF_energy
Delta_energy_SCF = 1.d0
iteration_SCF = 0
dim_DIIS = 0
max_error_DIIS = 1.d0
!
! Start of main SCF loop
!
PROVIDE Fock_matrix_mo error_diis_Fmo
do while ( &
( (max_error_DIIS > threshold_DIIS_nonzero) .or. &
(dabs(Delta_energy_SCF) > thresh_SCF) &
) .and. (iteration_SCF < n_it_SCF_max) )
iteration_SCF += 1
if(frozen_orb_scf) then
call initialize_mo_coef_begin_iteration
endif
dim_DIIS = min(dim_DIIS+1, max_dim_DIIS)
if( (scf_algorithm == 'DIIS_MO').and.(dabs(Delta_energy_SCF) > 1.d-6)) then
!if(scf_algorithm == 'DIIS_MO') then
index_dim_DIIS = mod(dim_DIIS-1, max_dim_DIIS) + 1
do j = 1, mo_num
do i = 1, mo_num
Fock_matrix_DIIS (i,j,index_dim_DIIS) = Fock_matrix_mo(i,j)
error_matrix_DIIS(i,j,index_dim_DIIS) = error_diis_Fmo(i,j)
enddo
enddo
call extrapolate_Fock_matrix_mo(error_matrix_DIIS, Fock_matrix_DIIS, Fock_matrix_mo, size(Fock_matrix_mo, 1), iteration_SCF, dim_DIIS)
do i = 1, mo_num
Fock_matrix_diag_mo(i) = Fock_matrix_mo(i,i)
enddo
TOUCH Fock_matrix_mo fock_matrix_diag_mo
endif
mo_coef = eigenvectors_Fock_matrix_mo
if(frozen_orb_scf) then
call reorder_core_orb
call initialize_mo_coef_begin_iteration
endif
TOUCH mo_coef
max_error_DIIS = maxval(Abs(error_diis_Fmo))
energy_SCF = SCF_energy
Delta_energy_SCF = energy_SCF - energy_SCF_previous
if( (SCF_algorithm == 'DIIS_MO') .and. (Delta_energy_SCF > 0.d0) ) then
Fock_matrix_MO(1:mo_num,1:mo_num) = Fock_matrix_DIIS(1:mo_num,1:mo_num,index_dim_DIIS)
do i = 1, mo_num
Fock_matrix_diag_mo(i) = Fock_matrix_mo(i,i)
enddo
TOUCH Fock_matrix_mo fock_matrix_diag_mo
mo_coef = eigenvectors_Fock_matrix_mo
max_error_DIIS = maxval(Abs(error_diis_Fmo))
energy_SCF = SCF_energy
Delta_energy_SCF = energy_SCF - energy_SCF_previous
endif
level_shift_save = level_shift
mo_coef_save(1:ao_num,1:mo_num) = mo_coef(1:ao_num,1:mo_num)
do while(Delta_energy_SCF > 0.d0)
mo_coef(1:ao_num,1:mo_num) = mo_coef_save(1:ao_num,1:mo_num)
if(level_shift <= .1d0) then
level_shift = 1.d0
else
level_shift = level_shift * 3.0d0
endif
TOUCH mo_coef level_shift
mo_coef(1:ao_num,1:mo_num) = eigenvectors_Fock_matrix_mo(1:ao_num,1:mo_num)
if(frozen_orb_scf) then
call reorder_core_orb
call initialize_mo_coef_begin_iteration
endif
TOUCH mo_coef
Delta_energy_SCF = SCF_energy - energy_SCF_previous
energy_SCF = SCF_energy
if(level_shift-level_shift_save > 40.d0) then
level_shift = level_shift_save * 4.d0
SOFT_TOUCH level_shift
exit
endif
dim_DIIS=0
enddo
level_shift = level_shift * 0.5d0
SOFT_TOUCH level_shift
energy_SCF_previous = energy_SCF
! Print results at the end of each iteration
write(6,'(I4, 1X, F16.10, 1X, F16.10, 1X, F16.10, 1X, F16.10, 1X, I3)') &
iteration_SCF, energy_SCF, Delta_energy_SCF, max_error_DIIS, level_shift, dim_DIIS
if(Delta_energy_SCF < 0.d0) then
call save_mos
endif
if(qp_stop()) exit
enddo
!
! End of Main SCF loop
!
if(iteration_SCF < n_it_SCF_max) then
mo_label = 'Canonical'
endif
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
'====','================','================','================','================'
write(6,*)
if(.not.frozen_orb_scf)then
call mo_as_eigvectors_of_mo_matrix(Fock_matrix_mo, size(Fock_matrix_mo, 1), size(Fock_matrix_mo, 2), mo_label, 1, .true.)
call restore_symmetry(ao_num, mo_num, mo_coef, size(mo_coef, 1), 1.d-10)
call orthonormalize_mos
call save_mos
endif
call write_double(6, energy_SCF, 'SCF energy')
call write_time(6)
end
! ---
subroutine extrapolate_Fock_matrix_mo(error_matrix_DIIS, Fock_matrix_DIIS, Fock_matrix_MO_, size_Fock_matrix_MO, iteration_SCF, dim_DIIS)
BEGIN_DOC
! Compute the extrapolated Fock matrix using the DIIS procedure
END_DOC
implicit none
integer,intent(inout) :: dim_DIIS
double precision,intent(in) :: Fock_matrix_DIIS(mo_num,mo_num,dim_DIIS), error_matrix_DIIS(mo_num,mo_num,dim_DIIS)
integer,intent(in) :: iteration_SCF, size_Fock_matrix_MO
double precision,intent(inout):: Fock_matrix_MO_(size_Fock_matrix_MO,mo_num)
double precision,allocatable :: B_matrix_DIIS(:,:),X_vector_DIIS(:)
double precision,allocatable :: C_vector_DIIS(:)
double precision,allocatable :: scratch(:,:)
integer :: i,j,k,l,i_DIIS,j_DIIS
double precision :: rcond, ferr, berr
integer, allocatable :: iwork(:)
integer :: lwork
if(dim_DIIS < 1) then
return
endif
allocate( &
B_matrix_DIIS(dim_DIIS+1,dim_DIIS+1), &
X_vector_DIIS(dim_DIIS+1), &
C_vector_DIIS(dim_DIIS+1), &
scratch(mo_num,mo_num) &
)
! Compute the matrices B and X
B_matrix_DIIS(:,:) = 0.d0
do j = 1, dim_DIIS
j_DIIS = min(dim_DIIS, mod(iteration_SCF-j, max_dim_DIIS) + 1)
do i = 1, dim_DIIS
i_DIIS = min(dim_DIIS, mod(iteration_SCF-i, max_dim_DIIS) + 1)
! Compute product of two errors vectors
do l = 1, mo_num
do k = 1, mo_num
B_matrix_DIIS(i,j) = B_matrix_DIIS(i,j) + error_matrix_DIIS(k,l,i_DIIS) * error_matrix_DIIS(k,l,j_DIIS)
enddo
enddo
enddo
enddo
! Pad B matrix and build the X matrix
C_vector_DIIS(:) = 0.d0
do i = 1, dim_DIIS
B_matrix_DIIS(i,dim_DIIS+1) = -1.d0
B_matrix_DIIS(dim_DIIS+1,i) = -1.d0
enddo
C_vector_DIIS(dim_DIIS+1) = -1.d0
deallocate(scratch)
! Estimate condition number of B
double precision :: anorm
integer :: info
integer,allocatable :: ipiv(:)
double precision, allocatable :: AF(:,:)
double precision, external :: dlange
lwork = max((dim_DIIS+1)**2, (dim_DIIS+1)*5)
allocate(AF(dim_DIIS+1,dim_DIIS+1))
allocate(ipiv(2*(dim_DIIS+1)), iwork(2*(dim_DIIS+1)) )
allocate(scratch(lwork,1))
scratch(:,1) = 0.d0
anorm = dlange('1', dim_DIIS+1, dim_DIIS+1, B_matrix_DIIS, size(B_matrix_DIIS, 1), scratch(1,1))
AF(:,:) = B_matrix_DIIS(:,:)
call dgetrf(dim_DIIS+1, dim_DIIS+1, AF, size(AF, 1), ipiv, info)
if(info /= 0) then
dim_DIIS = 0
return
endif
call dgecon( '1', dim_DIIS+1, AF, size(AF, 1), anorm, rcond, scratch, iwork, info)
if(info /= 0) then
dim_DIIS = 0
return
endif
if(rcond < 1.d-14) then
dim_DIIS = 0
return
endif
! solve the linear system C = B.X
X_vector_DIIS = C_vector_DIIS
call dgesv(dim_DIIS+1 , 1, B_matrix_DIIS, size(B_matrix_DIIS, 1), ipiv, X_vector_DIIS, size(X_vector_DIIS, 1), info)
deallocate(scratch, AF, iwork)
if(info < 0) then
stop 'bug in DIIS_MO'
endif
! Compute extrapolated Fock matrix
!$OMP PARALLEL DO PRIVATE(i,j,k) DEFAULT(SHARED) if (mo_num > 200)
do j = 1, mo_num
do i = 1, mo_num
Fock_matrix_MO_(i,j) = 0.d0
enddo
do k = 1, dim_DIIS
if(dabs(X_vector_DIIS(k)) < 1.d-10) cycle
do i = 1, mo_num
! FPE here
Fock_matrix_MO_(i,j) = Fock_matrix_MO_(i,j) + X_vector_DIIS(k) * Fock_matrix_DIIS(i,j,dim_DIIS-k+1)
enddo
enddo
enddo
!$OMP END PARALLEL DO
end

196
src/scf_utils/rh_scf_modif.irp.f Normal file
View File

@ -0,0 +1,196 @@
subroutine Roothaan_Hall_SCF_MODIF
BEGIN_DOC
! Roothaan-Hall algorithm for SCF Hartree-Fock calculation
END_DOC
implicit none
double precision :: energy_SCF,energy_SCF_previous,Delta_energy_SCF
double precision :: max_error_DIIS,max_error_DIIS_alpha,max_error_DIIS_beta
double precision, allocatable :: Fock_matrix_DIIS(:,:,:),error_matrix_DIIS(:,:,:)
integer :: iteration_SCF,dim_DIIS,index_dim_DIIS
integer :: i,j
logical, external :: qp_stop
double precision, allocatable :: mo_coef_save(:,:)
PROVIDE ao_md5 mo_occ level_shift
allocate(mo_coef_save(ao_num,mo_num), &
Fock_matrix_DIIS (ao_num,ao_num,max_dim_DIIS), &
error_matrix_DIIS(ao_num,ao_num,max_dim_DIIS) &
)
Fock_matrix_DIIS = 0.d0
error_matrix_DIIS = 0.d0
mo_coef_save = 0.d0
call write_time(6)
print*,'energy of the guess = ',SCF_energy
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
'====','================','================','================','================'
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
' N ', 'energy ', 'energy diff ', 'DIIS error ', 'Level shift '
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
'====','================','================','================','================'
! Initialize energies and density matrices
energy_SCF_previous = SCF_energy
Delta_energy_SCF = 1.d0
iteration_SCF = 0
dim_DIIS = 0
max_error_DIIS = 1.d0
!
! Start of main SCF loop
!
PROVIDE FPS_SPF_matrix_AO Fock_matrix_AO
do while ( &
( (max_error_DIIS > threshold_DIIS_nonzero) .or. &
(dabs(Delta_energy_SCF) > thresh_SCF) &
) .and. (iteration_SCF < n_it_SCF_max) )
! Increment cycle number
iteration_SCF += 1
if(frozen_orb_scf)then
call initialize_mo_coef_begin_iteration
endif
! Current size of the DIIS space
dim_DIIS = min(dim_DIIS+1,max_dim_DIIS)
if( (scf_algorithm == 'DIIS_MODIF') .and. (dabs(Delta_energy_SCF) > 1.d-6) ) then
!if(scf_algorithm == 'DIIS_MODIF') then
! Store Fock and error matrices at each iteration
index_dim_DIIS = mod(dim_DIIS-1,max_dim_DIIS)+1
do j=1,ao_num
do i=1,ao_num
Fock_matrix_DIIS (i,j,index_dim_DIIS) = Fock_matrix_AO(i,j)
error_matrix_DIIS(i,j,index_dim_DIIS) = FPS_SPF_matrix_AO(i,j)
enddo
enddo
! Compute the extrapolated Fock matrix
call extrapolate_Fock_matrix( &
error_matrix_DIIS,Fock_matrix_DIIS, &
Fock_matrix_AO,size(Fock_matrix_AO,1), &
iteration_SCF,dim_DIIS &
)
call ao_to_mo(Fock_matrix_AO, size(Fock_matrix_AO, 1), Fock_matrix_MO, size(Fock_matrix_MO, 1))
do i = 1, mo_num
Fock_matrix_diag_MO(i) = Fock_matrix_MO(i,i)
enddo
TOUCH Fock_matrix_MO Fock_matrix_diag_MO
!Fock_matrix_AO_alpha = Fock_matrix_AO*0.5d0
!Fock_matrix_AO_beta = Fock_matrix_AO*0.5d0
!TOUCH Fock_matrix_AO_alpha Fock_matrix_AO_beta
endif
MO_coef = eigenvectors_Fock_matrix_MO
if(frozen_orb_scf)then
call reorder_core_orb
call initialize_mo_coef_begin_iteration
endif
TOUCH MO_coef
! Calculate error vectors
max_error_DIIS = maxval(Abs(FPS_SPF_Matrix_MO))
! SCF energy
energy_SCF = SCF_energy
Delta_energy_SCF = energy_SCF - energy_SCF_previous
if( (SCF_algorithm == 'DIIS_MODIF') .and. (Delta_energy_SCF > 0.d0) ) then
Fock_matrix_AO(1:ao_num,1:ao_num) = Fock_matrix_DIIS(1:ao_num,1:ao_num,index_dim_DIIS)
call ao_to_mo(Fock_matrix_AO, size(Fock_matrix_AO, 1), Fock_matrix_MO, size(Fock_matrix_MO, 1))
do i = 1, mo_num
Fock_matrix_diag_MO(i) = Fock_matrix_MO(i,i)
enddo
TOUCH Fock_matrix_MO Fock_matrix_diag_MO
!Fock_matrix_AO_alpha = Fock_matrix_AO*0.5d0
!Fock_matrix_AO_beta = Fock_matrix_AO*0.5d0
!TOUCH Fock_matrix_AO_alpha Fock_matrix_AO_beta
endif
double precision :: level_shift_save
level_shift_save = level_shift
mo_coef_save(1:ao_num,1:mo_num) = mo_coef(1:ao_num,1:mo_num)
do while (Delta_energy_SCF > 0.d0)
mo_coef(1:ao_num,1:mo_num) = mo_coef_save
if (level_shift <= .1d0) then
level_shift = 1.d0
else
level_shift = level_shift * 3.0d0
endif
TOUCH mo_coef level_shift
mo_coef(1:ao_num,1:mo_num) = eigenvectors_Fock_matrix_MO(1:ao_num,1:mo_num)
if(frozen_orb_scf)then
call reorder_core_orb
call initialize_mo_coef_begin_iteration
endif
TOUCH mo_coef
Delta_energy_SCF = SCF_energy - energy_SCF_previous
energy_SCF = SCF_energy
if (level_shift-level_shift_save > 40.d0) then
level_shift = level_shift_save * 4.d0
SOFT_TOUCH level_shift
exit
endif
dim_DIIS=0
enddo
level_shift = level_shift * 0.5d0
SOFT_TOUCH level_shift
energy_SCF_previous = energy_SCF
! Print results at the end of each iteration
write(6,'(I4, 1X, F16.10, 1X, F16.10, 1X, F16.10, 1X, F16.10, 1X, I3)') &
iteration_SCF, energy_SCF, Delta_energy_SCF, max_error_DIIS, level_shift, dim_DIIS
if (Delta_energy_SCF < 0.d0) then
call save_mos
endif
if (qp_stop()) exit
enddo
if (iteration_SCF < n_it_SCF_max) then
mo_label = 'Canonical'
endif
!
! End of Main SCF loop
!
write(6,'(A4, 1X, A16, 1X, A16, 1X, A16, 1X, A16)') &
'====','================','================','================','================'
write(6,*)
if(.not.frozen_orb_scf)then
call mo_as_eigvectors_of_mo_matrix(Fock_matrix_mo,size(Fock_matrix_mo,1), &
size(Fock_matrix_mo,2),mo_label,1,.true.)
call restore_symmetry(ao_num, mo_num, mo_coef, size(mo_coef,1), 1.d-10)
call orthonormalize_mos
call save_mos
endif
call write_double(6, energy_SCF, 'SCF energy')
call write_time(6)
end

3
src/tc_bi_ortho/slater_tc.irp.f
View File

@ -324,6 +324,9 @@ subroutine single_htilde_mu_mat_bi_ortho(Nint, key_j, key_i, hmono, htwoe, htot)
call get_single_excitation(key_i, key_j, exc, phase, Nint) call get_single_excitation(key_i, key_j, exc, phase, Nint)
call decode_exc(exc,1,h1,p1,h2,p2,s1,s2) call decode_exc(exc,1,h1,p1,h2,p2,s1,s2)
! if(h1==14.and.p1==2)then
! print*,'h1,p1 old = ',h1,p1
! endif
hmono = mo_bi_ortho_tc_one_e(p1,h1) * phase hmono = mo_bi_ortho_tc_one_e(p1,h1) * phase

37
src/tc_bi_ortho/slater_tc_3e.irp.f
View File

@ -49,8 +49,6 @@ subroutine diag_htilde_three_body_ints_bi_ort(Nint, key_i, hthree)
if(Ne(1)+Ne(2).ge.3)then if(Ne(1)+Ne(2).ge.3)then
!! ! alpha/alpha/beta three-body !! ! alpha/alpha/beta three-body
double precision :: accu
accu = 0.d0
do i = 1, Ne(1) do i = 1, Ne(1)
ii = occ(i,1) ii = occ(i,1)
do j = i+1, Ne(1) do j = i+1, Ne(1)
@ -62,14 +60,11 @@ subroutine diag_htilde_three_body_ints_bi_ort(Nint, key_i, hthree)
direct_int = three_e_3_idx_direct_bi_ort(mm,jj,ii) ! USES 3-IDX TENSOR direct_int = three_e_3_idx_direct_bi_ort(mm,jj,ii) ! USES 3-IDX TENSOR
exchange_int = three_e_3_idx_exch12_bi_ort(mm,jj,ii) ! USES 3-IDX TENSOR exchange_int = three_e_3_idx_exch12_bi_ort(mm,jj,ii) ! USES 3-IDX TENSOR
hthree += direct_int - exchange_int hthree += direct_int - exchange_int
accu += direct_int - exchange_int
enddo enddo
enddo enddo
enddo enddo
!print*,'aab = ',accu
! beta/beta/alpha three-body ! beta/beta/alpha three-body
accu = 0.d0
do i = 1, Ne(2) do i = 1, Ne(2)
ii = occ(i,2) ii = occ(i,2)
do j = i+1, Ne(2) do j = i+1, Ne(2)
@ -79,14 +74,11 @@ subroutine diag_htilde_three_body_ints_bi_ort(Nint, key_i, hthree)
direct_int = three_e_3_idx_direct_bi_ort(mm,jj,ii) direct_int = three_e_3_idx_direct_bi_ort(mm,jj,ii)
exchange_int = three_e_3_idx_exch12_bi_ort(mm,jj,ii) exchange_int = three_e_3_idx_exch12_bi_ort(mm,jj,ii)
hthree += direct_int - exchange_int hthree += direct_int - exchange_int
accu += direct_int - exchange_int
enddo enddo
enddo enddo
enddo enddo
!print*,'abb = ',accu
! alpha/alpha/alpha three-body ! alpha/alpha/alpha three-body
accu = 0.d0
do i = 1, Ne(1) do i = 1, Ne(1)
ii = occ(i,1) ! 1 ii = occ(i,1) ! 1
do j = i+1, Ne(1) do j = i+1, Ne(1)
@ -95,14 +87,11 @@ subroutine diag_htilde_three_body_ints_bi_ort(Nint, key_i, hthree)
mm = occ(m,1) ! 3 mm = occ(m,1) ! 3
! ref = sym_3_e_int_from_6_idx_tensor(mm,jj,ii,mm,jj,ii) USES THE 6 IDX TENSOR ! ref = sym_3_e_int_from_6_idx_tensor(mm,jj,ii,mm,jj,ii) USES THE 6 IDX TENSOR
hthree += three_e_diag_parrallel_spin(mm,jj,ii) ! USES ONLY 3-IDX TENSORS hthree += three_e_diag_parrallel_spin(mm,jj,ii) ! USES ONLY 3-IDX TENSORS
accu += three_e_diag_parrallel_spin(mm,jj,ii)
enddo enddo
enddo enddo
enddo enddo
!print*,'aaa = ',accu
! beta/beta/beta three-body ! beta/beta/beta three-body
accu = 0.d0
do i = 1, Ne(2) do i = 1, Ne(2)
ii = occ(i,2) ! 1 ii = occ(i,2) ! 1
do j = i+1, Ne(2) do j = i+1, Ne(2)
@ -111,11 +100,9 @@ subroutine diag_htilde_three_body_ints_bi_ort(Nint, key_i, hthree)
mm = occ(m,2) ! 3 mm = occ(m,2) ! 3
! ref = sym_3_e_int_from_6_idx_tensor(mm,jj,ii,mm,jj,ii) USES THE 6 IDX TENSOR ! ref = sym_3_e_int_from_6_idx_tensor(mm,jj,ii,mm,jj,ii) USES THE 6 IDX TENSOR
hthree += three_e_diag_parrallel_spin(mm,jj,ii) ! USES ONLY 3-IDX TENSORS hthree += three_e_diag_parrallel_spin(mm,jj,ii) ! USES ONLY 3-IDX TENSORS
accu += three_e_diag_parrallel_spin(mm,jj,ii)
enddo enddo
enddo enddo
enddo enddo
!print*,'bbb = ',accu
endif endif
end end
@ -269,20 +256,16 @@ subroutine double_htilde_three_body_ints_bi_ort(Nint, key_j, key_i, hthree)
if(Ne(1)+Ne(2).ge.3)then if(Ne(1)+Ne(2).ge.3)then
if(s1==s2)then ! same spin excitation if(s1==s2)then ! same spin excitation
ispin = other_spin(s1) ispin = other_spin(s1)
! print*,'htilde ij' do m = 1, Ne(ispin) ! direct(other_spin) - exchange(s1)
do m = 1, Ne(ispin) ! direct(other_spin) - exchange(s1) mm = occ(m,ispin)
mm = occ(m,ispin) direct_int = three_e_5_idx_direct_bi_ort(mm,p2,h2,p1,h1)
!! direct_int = three_body_ints_bi_ort(mm,p2,p1,mm,h2,h1) exchange_int = three_e_5_idx_exch12_bi_ort(mm,p2,h2,p1,h1)
!! exchange_int = three_body_ints_bi_ort(mm,p2,p1,mm,h1,h2) hthree += direct_int - exchange_int
direct_int = three_e_5_idx_direct_bi_ort(mm,p2,h2,p1,h1) enddo
exchange_int = three_e_5_idx_exch12_bi_ort(mm,p2,h2,p1,h1) do m = 1, Ne(s1) ! pure contribution from s1
! print*,direct_int,exchange_int mm = occ(m,s1)
hthree += direct_int - exchange_int hthree += three_e_double_parrallel_spin(mm,p2,h2,p1,h1)
enddo enddo
do m = 1, Ne(s1) ! pure contribution from s1
mm = occ(m,s1)
hthree += three_e_double_parrallel_spin(mm,p2,h2,p1,h1)
enddo
else ! different spin excitation else ! different spin excitation
do m = 1, Ne(s1) do m = 1, Ne(s1)
mm = occ(m,s1) ! mm = occ(m,s1) !

44
src/tc_bi_ortho/slater_tc_opt.irp.f Normal file
View File

@ -0,0 +1,44 @@
subroutine htilde_mu_mat_opt_bi_ortho(key_j, key_i, Nint, hmono, htwoe, hthree, htot)
BEGIN_DOC
!
! <key_j | H_tilde | key_i> where |key_j> is developed on the LEFT basis and |key_i> is developed on the RIGHT basis
!!
! Returns the detail of the matrix element in terms of single, two and three electron contribution.
!! WARNING !!
!
! Non hermitian !!
!
END_DOC
use bitmasks
implicit none
integer, intent(in) :: Nint
integer(bit_kind), intent(in) :: key_i(Nint,2), key_j(Nint,2)
double precision, intent(out) :: hmono, htwoe, hthree, htot
integer :: degree
hmono = 0.d0
htwoe = 0.d0
htot = 0.d0
hthree = 0.D0
call get_excitation_degree(key_i, key_j, degree, Nint)
if(degree.gt.2) return
if(degree == 0)then
call diag_htilde_mu_mat_fock_bi_ortho (Nint, key_i, hmono, htwoe, hthree, htot)
else if (degree == 1)then
call single_htilde_mu_mat_fock_bi_ortho(Nint,key_j, key_i , hmono, htwoe, hthree, htot)
else if(degree == 2)then
call double_htilde_mu_mat_fock_bi_ortho(Nint, key_j, key_i, hmono, htwoe, hthree, htot)
endif
if(degree==0) then
htot += nuclear_repulsion
endif
end
! ---

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BEGIN_PROVIDER [ double precision, ref_tc_energy_tot]
&BEGIN_PROVIDER [ double precision, ref_tc_energy_1e]
&BEGIN_PROVIDER [ double precision, ref_tc_energy_2e]
&BEGIN_PROVIDER [ double precision, ref_tc_energy_3e]
implicit none
BEGIN_DOC
! Various component of the TC energy for the reference "HF" Slater determinant
END_DOC
double precision :: hmono, htwoe, htot, hthree
call diag_htilde_mu_mat_bi_ortho(N_int,HF_bitmask , hmono, htwoe, htot)
ref_tc_energy_1e = hmono
ref_tc_energy_2e = htwoe
if(three_body_h_tc)then
call diag_htilde_three_body_ints_bi_ort(N_int, HF_bitmask, hthree)
ref_tc_energy_3e = hthree
else
ref_tc_energy_3e = 0.d0
endif
ref_tc_energy_tot = ref_tc_energy_1e + ref_tc_energy_2e + ref_tc_energy_3e
END_PROVIDER
subroutine diag_htilde_mu_mat_fock_bi_ortho(Nint, det_in, hmono, htwoe, hthree, htot)
implicit none
BEGIN_DOC
! Computes $\langle i|H|i \rangle$.
END_DOC
integer,intent(in) :: Nint
integer(bit_kind),intent(in) :: det_in(Nint,2)
double precision, intent(out) :: hmono,htwoe,htot,hthree
integer(bit_kind) :: hole(Nint,2)
integer(bit_kind) :: particle(Nint,2)
integer :: i, nexc(2), ispin
integer :: occ_particle(Nint*bit_kind_size,2)
integer :: occ_hole(Nint*bit_kind_size,2)
integer(bit_kind) :: det_tmp(Nint,2)
integer :: na, nb
ASSERT (Nint > 0)
ASSERT (sum(popcnt(det_in(:,1))) == elec_alpha_num)
ASSERT (sum(popcnt(det_in(:,2))) == elec_beta_num)
nexc(1) = 0
nexc(2) = 0
do i=1,Nint
hole(i,1) = xor(det_in(i,1),ref_bitmask(i,1))
hole(i,2) = xor(det_in(i,2),ref_bitmask(i,2))
particle(i,1) = iand(hole(i,1),det_in(i,1))
particle(i,2) = iand(hole(i,2),det_in(i,2))
hole(i,1) = iand(hole(i,1),ref_bitmask(i,1))
hole(i,2) = iand(hole(i,2),ref_bitmask(i,2))
nexc(1) = nexc(1) + popcnt(hole(i,1))
nexc(2) = nexc(2) + popcnt(hole(i,2))
enddo
if (nexc(1)+nexc(2) == 0) then
hmono = ref_tc_energy_1e
htwoe = ref_tc_energy_2e
hthree= ref_tc_energy_3e
htot = ref_tc_energy_tot
return
endif
!call debug_det(det_in,Nint)
integer :: tmp(2)
!DIR$ FORCEINLINE
call bitstring_to_list_ab(particle, occ_particle, tmp, Nint)
ASSERT (tmp(1) == nexc(1)) ! Number of particles alpha
ASSERT (tmp(2) == nexc(2)) ! Number of particle beta
!DIR$ FORCEINLINE
call bitstring_to_list_ab(hole, occ_hole, tmp, Nint)
ASSERT (tmp(1) == nexc(1)) ! Number of holes alpha
ASSERT (tmp(2) == nexc(2)) ! Number of holes beta
det_tmp = ref_bitmask
hmono = ref_tc_energy_1e
htwoe = ref_tc_energy_2e
hthree= ref_tc_energy_3e
do ispin=1,2
na = elec_num_tab(ispin)
nb = elec_num_tab(iand(ispin,1)+1)
do i=1,nexc(ispin)
!DIR$ FORCEINLINE
call ac_tc_operator( occ_particle(i,ispin), ispin, det_tmp, hmono,htwoe,hthree, Nint,na,nb)
!DIR$ FORCEINLINE
call a_tc_operator ( occ_hole (i,ispin), ispin, det_tmp, hmono,htwoe,hthree, Nint,na,nb)
enddo
enddo
htot = hmono+htwoe+hthree
end
subroutine ac_tc_operator(iorb,ispin,key,hmono,htwoe,hthree,Nint,na,nb)
use bitmasks
implicit none
BEGIN_DOC
! Routine that computes one- and two-body energy corresponding
!
! to the ADDITION of an electron in an orbital 'iorb' of spin 'ispin'
!
! onto a determinant 'key'.
!
! in output, the determinant key is changed by the ADDITION of that electron
!
! and the quantities hmono,htwoe,hthree are INCREMENTED
END_DOC
integer, intent(in) :: iorb, ispin, Nint
integer, intent(inout) :: na, nb
integer(bit_kind), intent(inout) :: key(Nint,2)
double precision, intent(inout) :: hmono,htwoe,hthree
integer :: occ(Nint*bit_kind_size,2)
integer :: other_spin
integer :: k,l,i,jj,mm,j,m
double precision :: direct_int, exchange_int
if (iorb < 1) then
print *, irp_here, ': iorb < 1'
print *, iorb, mo_num
stop -1
endif
if (iorb > mo_num) then
print *, irp_here, ': iorb > mo_num'
print *, iorb, mo_num
stop -1
endif
ASSERT (ispin > 0)
ASSERT (ispin < 3)
ASSERT (Nint > 0)
integer :: tmp(2)
!DIR$ FORCEINLINE
call bitstring_to_list_ab(key, occ, tmp, Nint)
ASSERT (tmp(1) == elec_alpha_num)
ASSERT (tmp(2) == elec_beta_num)
k = shiftr(iorb-1,bit_kind_shift)+1
ASSERT (k >0)
l = iorb - shiftl(k-1,bit_kind_shift)-1
ASSERT (l >= 0)
key(k,ispin) = ibset(key(k,ispin),l)
other_spin = iand(ispin,1)+1
hmono = hmono + mo_bi_ortho_tc_one_e(iorb,iorb)
! Same spin
do i=1,na
htwoe = htwoe + mo_bi_ortho_tc_two_e_jj_anti(occ(i,ispin),iorb)
enddo
! Opposite spin
do i=1,nb
htwoe = htwoe + mo_bi_ortho_tc_two_e_jj(occ(i,other_spin),iorb)
enddo
if(three_body_h_tc)then
!!!!! 3-e part
!! same-spin/same-spin
do j = 1, na
jj = occ(j,ispin)
do m = j+1, na
mm = occ(m,ispin)
hthree += three_e_diag_parrallel_spin_prov(mm,jj,iorb)
enddo
enddo
!! same-spin/oposite-spin
do j = 1, na
jj = occ(j,ispin)
do m = 1, nb
mm = occ(m,other_spin)
direct_int = three_e_3_idx_direct_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
exchange_int = three_e_3_idx_exch12_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
hthree += direct_int - exchange_int
enddo
enddo
!! oposite-spin/opposite-spin
do j = 1, nb
jj = occ(j,other_spin)
do m = j+1, nb
mm = occ(m,other_spin)
direct_int = three_e_3_idx_direct_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
exchange_int = three_e_3_idx_exch23_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
hthree += direct_int - exchange_int
enddo
enddo
endif
na = na+1
end
subroutine a_tc_operator(iorb,ispin,key,hmono,htwoe,hthree,Nint,na,nb)
use bitmasks
implicit none
BEGIN_DOC
! Routine that computes one- and two-body energy corresponding
!
! to the REMOVAL of an electron in an orbital 'iorb' of spin 'ispin'
!
! onto a determinant 'key'.
!
! in output, the determinant key is changed by the REMOVAL of that electron
!
! and the quantities hmono,htwoe,hthree are INCREMENTED
END_DOC
integer, intent(in) :: iorb, ispin, Nint
integer, intent(inout) :: na, nb
integer(bit_kind), intent(inout) :: key(Nint,2)
double precision, intent(inout) :: hmono,htwoe,hthree
double precision :: direct_int, exchange_int
integer :: occ(Nint*bit_kind_size,2)
integer :: other_spin
integer :: k,l,i,jj,mm,j,m
integer :: tmp(2)
ASSERT (iorb > 0)
ASSERT (ispin > 0)
ASSERT (ispin < 3)
ASSERT (Nint > 0)
k = shiftr(iorb-1,bit_kind_shift)+1
ASSERT (k>0)
l = iorb - shiftl(k-1,bit_kind_shift)-1
key(k,ispin) = ibclr(key(k,ispin),l)
other_spin = iand(ispin,1)+1
!DIR$ FORCEINLINE
call bitstring_to_list_ab(key, occ, tmp, Nint)
na = na-1
hmono = hmono - mo_bi_ortho_tc_one_e(iorb,iorb)
! Same spin
do i=1,na
htwoe= htwoe- mo_bi_ortho_tc_two_e_jj_anti(occ(i,ispin),iorb)
enddo
! Opposite spin
do i=1,nb
htwoe= htwoe- mo_bi_ortho_tc_two_e_jj(occ(i,other_spin),iorb)
enddo
if(three_body_h_tc)then
!!!!! 3-e part
!! same-spin/same-spin
do j = 1, na
jj = occ(j,ispin)
do m = j+1, na
mm = occ(m,ispin)
hthree -= three_e_diag_parrallel_spin_prov(mm,jj,iorb)
enddo
enddo
!! same-spin/oposite-spin
do j = 1, na
jj = occ(j,ispin)
do m = 1, nb
mm = occ(m,other_spin)
direct_int = three_e_3_idx_direct_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
exchange_int = three_e_3_idx_exch12_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
hthree -= (direct_int - exchange_int)
enddo
enddo
!! oposite-spin/opposite-spin
do j = 1, nb
jj = occ(j,other_spin)
do m = j+1, nb
mm = occ(m,other_spin)
direct_int = three_e_3_idx_direct_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
exchange_int = three_e_3_idx_exch23_bi_ort(mm,jj,iorb) ! USES 3-IDX TENSOR
hthree -= (direct_int - exchange_int)
enddo
enddo
endif
end

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subroutine double_htilde_mu_mat_fock_bi_ortho(Nint, key_j, key_i, hmono, htwoe, hthree, htot)
BEGIN_DOC
! <key_j | H_tilde | key_i> for double excitation ONLY FOR ONE- AND TWO-BODY TERMS
!!
!! WARNING !!
!
! Non hermitian !!
END_DOC
use bitmasks
implicit none
integer, intent(in) :: Nint
integer(bit_kind), intent(in) :: key_j(Nint,2), key_i(Nint,2)
double precision, intent(out) :: hmono, htwoe, hthree, htot
integer :: occ(Nint*bit_kind_size,2)
integer :: Ne(2), i, j, ii, jj, ispin, jspin, k, kk
integer :: degree,exc(0:2,2,2)
integer :: h1, p1, h2, p2, s1, s2
double precision :: get_mo_two_e_integral_tc_int,phase
call get_excitation_degree(key_i, key_j, degree, Nint)
hmono = 0.d0
htwoe = 0.d0
hthree = 0.d0
htot = 0.d0
if(degree.ne.2)then
return
endif
integer :: degree_i,degree_j
call get_excitation_degree(ref_bitmask,key_i,degree_i,N_int)
call get_excitation_degree(ref_bitmask,key_j,degree_j,N_int)
call get_double_excitation(key_i, key_j, exc, phase, Nint)
call decode_exc(exc, 2, h1, p1, h2, p2, s1, s2)
if(s1.ne.s2)then
! opposite spin two-body
htwoe = mo_bi_ortho_tc_two_e(p2,p1,h2,h1)
if(three_body_h_tc)then
if(.not.double_normal_ord)then
if(degree_i>degree_j)then
call three_comp_two_e_elem(key_j,h1,h2,p1,p2,s1,s2,hthree)
else
call three_comp_two_e_elem(key_i,h1,h2,p1,p2,s1,s2,hthree)
endif
elseif(double_normal_ord.and.elec_num+elec_num.gt.2)then
htwoe += normal_two_body_bi_orth(p2,h2,p1,h1)!!! WTF ???
endif
endif
else
! same spin two-body
! direct terms
htwoe = mo_bi_ortho_tc_two_e(p2,p1,h2,h1)
! exchange terms
htwoe -= mo_bi_ortho_tc_two_e(p1,p2,h2,h1)
if(three_body_h_tc)then
if(.not.double_normal_ord)then
if(degree_i>degree_j)then
call three_comp_two_e_elem(key_j,h1,h2,p1,p2,s1,s2,hthree)
else
call three_comp_two_e_elem(key_i,h1,h2,p1,p2,s1,s2,hthree)
endif
elseif(double_normal_ord.and.elec_num+elec_num.gt.2)then
htwoe -= normal_two_body_bi_orth(h2,p1,h1,p2)!!! WTF ???
htwoe += normal_two_body_bi_orth(h1,p1,h2,p2)!!! WTF ???
endif
endif
endif
hthree *= phase
htwoe *= phase
htot = htwoe + hthree
end
subroutine three_comp_two_e_elem(key_i,h1,h2,p1,p2,s1,s2,hthree)
implicit none
integer(bit_kind), intent(in) :: key_i(N_int,2)
integer, intent(in) :: h1,h2,p1,p2,s1,s2
double precision, intent(out) :: hthree
integer :: nexc(2),i,ispin,na,nb
integer(bit_kind) :: hole(N_int,2)
integer(bit_kind) :: particle(N_int,2)
integer :: occ_hole(N_int*bit_kind_size,2)
integer :: occ_particle(N_int*bit_kind_size,2)
integer :: n_occ_ab_hole(2),n_occ_ab_particle(2)
integer(bit_kind) :: det_tmp(N_int,2)
integer :: ipart, ihole
double precision :: direct_int, exchange_int
nexc(1) = 0
nexc(2) = 0
!! Get all the holes and particles of key_i with respect to the ROHF determinant
do i=1,N_int
hole(i,1) = xor(key_i(i,1),ref_bitmask(i,1))
hole(i,2) = xor(key_i(i,2),ref_bitmask(i,2))
particle(i,1) = iand(hole(i,1),key_i(i,1))
particle(i,2) = iand(hole(i,2),key_i(i,2))
hole(i,1) = iand(hole(i,1),ref_bitmask(i,1))
hole(i,2) = iand(hole(i,2),ref_bitmask(i,2))
nexc(1) = nexc(1) + popcnt(hole(i,1))
nexc(2) = nexc(2) + popcnt(hole(i,2))
enddo
integer :: tmp(2)
!DIR$ FORCEINLINE
call bitstring_to_list_ab(particle, occ_particle, tmp, N_int)
ASSERT (tmp(1) == nexc(1)) ! Number of particles alpha
ASSERT (tmp(2) == nexc(2)) ! Number of particle beta
!DIR$ FORCEINLINE
call bitstring_to_list_ab(hole, occ_hole, tmp, N_int)
ASSERT (tmp(1) == nexc(1)) ! Number of holes alpha
ASSERT (tmp(2) == nexc(2)) ! Number of holes beta
if(s1==s2.and.s1==1)then
!!!!!!!!!!!!!!!!!!!!!!!!!! alpha/alpha double exc
hthree = eff_2_e_from_3_e_aa(p2,p1,h2,h1)
if(nexc(1)+nexc(2) ==0)return !! if you're on the reference determinant
!!!!!!!! the matrix element is already exact
!!!!!!!! else you need to take care of holes and particles
!!!!!!!!!!!!! Holes and particles !!!!!!!!!!!!!!!!!!!!!!!
ispin = 1 ! i==alpha ==> pure same spin terms
do i = 1, nexc(ispin) ! number of couple of holes/particles
ipart=occ_particle(i,ispin)
hthree += three_e_double_parrallel_spin_prov(ipart,p2,h2,p1,h1)
ihole=occ_hole(i,ispin)
hthree -= three_e_double_parrallel_spin_prov(ihole,p2,h2,p1,h1)
enddo
ispin = 2 ! i==beta ==> alpha/alpha/beta terms
do i = 1, nexc(ispin) ! number of couple of holes/particles
! exchange between (h1,p1) and (h2,p2)
ipart=occ_particle(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ipart,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch12_bi_ort(ipart,p2,h2,p1,h1)
hthree += direct_int - exchange_int
ihole=occ_hole(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ihole,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch12_bi_ort(ihole,p2,h2,p1,h1)
hthree -= direct_int - exchange_int
enddo
!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
elseif(s1==s2.and.s1==2)then
!!!!!!!!!!!!!!!!!!!!!!!!!! beta/beta double exc
hthree = eff_2_e_from_3_e_bb(p2,p1,h2,h1)
if(nexc(1)+nexc(2) ==0)return !! if you're on the reference determinant
!!!!!!!! the matrix element is already exact
!!!!!!!! else you need to take care of holes and particles
!!!!!!!!!!!!! Holes and particles !!!!!!!!!!!!!!!!!!!!!!!
ispin = 2 ! i==beta ==> pure same spin terms
do i = 1, nexc(ispin) ! number of couple of holes/particles
ipart=occ_particle(i,ispin)
hthree += three_e_double_parrallel_spin_prov(ipart,p2,h2,p1,h1)
ihole=occ_hole(i,ispin)
hthree -= three_e_double_parrallel_spin_prov(ihole,p2,h2,p1,h1)
enddo
ispin = 1 ! i==alpha==> beta/beta/alpha terms
do i = 1, nexc(ispin) ! number of couple of holes/particles
! exchange between (h1,p1) and (h2,p2)
ipart=occ_particle(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ipart,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch12_bi_ort(ipart,p2,h2,p1,h1)
hthree += direct_int - exchange_int
ihole=occ_hole(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ihole,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch12_bi_ort(ihole,p2,h2,p1,h1)
hthree -= direct_int - exchange_int
enddo
else ! (h1,p1) == alpha/(h2,p2) == beta
hthree = eff_2_e_from_3_e_ab(p2,p1,h2,h1)
if(nexc(1)+nexc(2) ==0)return !! if you're on the reference determinant
!!!!!!!! the matrix element is already exact
!!!!!!!! else you need to take care of holes and particles
!!!!!!!!!!!!! Holes and particles !!!!!!!!!!!!!!!!!!!!!!!
ispin = 1 ! i==alpha ==> alpha/beta/alpha terms
do i = 1, nexc(ispin) ! number of couple of holes/particles
! exchange between (h1,p1) and i
ipart=occ_particle(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ipart,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch13_bi_ort(ipart,p2,h2,p1,h1)
hthree += direct_int - exchange_int
ihole=occ_hole(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ihole,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch13_bi_ort(ihole,p2,h2,p1,h1)
hthree -= direct_int - exchange_int
enddo
ispin = 2 ! i==beta ==> alpha/beta/beta terms
do i = 1, nexc(ispin) ! number of couple of holes/particles
! exchange between (h2,p2) and i
ipart=occ_particle(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ipart,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch23_bi_ort(ipart,p2,h2,p1,h1)
hthree += direct_int - exchange_int
ihole=occ_hole(i,ispin)
direct_int = three_e_5_idx_direct_bi_ort(ihole,p2,h2,p1,h1)
exchange_int = three_e_5_idx_exch23_bi_ort(ihole,p2,h2,p1,h1)
hthree -= direct_int - exchange_int
enddo
endif
end
BEGIN_PROVIDER [ double precision, eff_2_e_from_3_e_ab, (mo_num, mo_num, mo_num, mo_num)]
implicit none
BEGIN_DOC
! eff_2_e_from_3_e_ab(p2,p1,h2,h1) = Effective Two-electron operator for alpha/beta double excitations
!
! from contraction with HF density = a^{dagger}_p1_alpha a^{dagger}_p2_beta a_h2_beta a_h1_alpha
END_DOC
integer :: i,h1,p1,h2,p2
integer :: hh1,hh2,pp1,pp2,m,mm
integer :: Ne(2)
integer, allocatable :: occ(:,:)
double precision :: contrib
allocate( occ(N_int*bit_kind_size,2) )
call bitstring_to_list_ab(ref_bitmask,occ,Ne,N_int)
call give_contrib_for_abab(1,1,1,1,occ,Ne,contrib)
eff_2_e_from_3_e_ab = 0.d0
!$OMP PARALLEL &
!$OMP DEFAULT (NONE) &
!$OMP PRIVATE (hh1, h1, hh2, h2, pp1, p1, pp2, p2, contrib) &
!$OMP SHARED (n_act_orb, list_act, Ne,occ, eff_2_e_from_3_e_ab)
!$OMP DO SCHEDULE (static)
do hh1 = 1, n_act_orb !! alpha
h1 = list_act(hh1)
do hh2 = 1, n_act_orb !! beta
h2 = list_act(hh2)
do pp1 = 1, n_act_orb !! alpha
p1 = list_act(pp1)
do pp2 = 1, n_act_orb !! beta
p2 = list_act(pp2)
call give_contrib_for_abab(h1,h2,p1,p2,occ,Ne,contrib)
eff_2_e_from_3_e_ab(p2,p1,h2,h1) = contrib
enddo
enddo
enddo
enddo
!$OMP END DO
!$OMP END PARALLEL
END_PROVIDER
subroutine give_contrib_for_abab(h1,h2,p1,p2,occ,Ne,contrib)
implicit none
BEGIN_DOC
! gives the contribution for a double excitation (h1,p1)_alpha (h2,p2)_beta
!
! on top of a determinant whose occupied orbitals is in (occ, Ne)
END_DOC
integer, intent(in) :: h1,h2,p1,p2,occ(N_int*bit_kind_size,2),Ne(2)
double precision, intent(out) :: contrib
integer :: mm,m
double precision :: direct_int, exchange_int
!! h1,p1 == alpha
!! h2,p2 == beta
contrib = 0.d0
do mm = 1, Ne(1) !! alpha
m = occ(mm,1)
direct_int = three_e_5_idx_direct_bi_ort(mm,p2,h2,p1,h1)
! exchange between (h1,p1) and m
exchange_int = three_e_5_idx_exch13_bi_ort(mm,p2,h2,p1,h1)
contrib += direct_int - exchange_int
enddo
do mm = 1, Ne(2) !! beta
m = occ(mm,2)
direct_int = three_e_5_idx_direct_bi_ort(mm,p2,h2,p1,h1)
! exchange between (h2,p2) and m
exchange_int = three_e_5_idx_exch23_bi_ort(mm,p2,h2,p1,h1)
contrib += direct_int - exchange_int
enddo
end
BEGIN_PROVIDER [ double precision, eff_2_e_from_3_e_aa, (mo_num, mo_num, mo_num, mo_num)]
implicit none
BEGIN_DOC
! eff_2_e_from_3_e_ab(p2,p1,h2,h1) = Effective Two-electron operator for alpha/alpha double excitations
!
! from contractionelec_alpha_num with HF density = a^{dagger}_p1_alpha a^{dagger}_p2_alpha a_h2_alpha a_h1_alpha
!
! WARNING :: to be coherent with the phase convention used in the Hamiltonian matrix elements, you must fulfill
!
! |||| h2>h1, p2>p1 ||||
END_DOC
integer :: i,h1,p1,h2,p2
integer :: hh1,hh2,pp1,pp2,m,mm
integer :: Ne(2)
integer, allocatable :: occ(:,:)
double precision :: contrib
allocate( occ(N_int*bit_kind_size,2) )
call bitstring_to_list_ab(ref_bitmask,occ,Ne,N_int)
call give_contrib_for_aaaa(1 ,1 ,1 ,1 ,occ,Ne,contrib)
eff_2_e_from_3_e_aa = 100000000.d0
!$OMP PARALLEL &
!$OMP DEFAULT (NONE) &
!$OMP PRIVATE (hh1, h1, hh2, h2, pp1, p1, pp2, p2, contrib) &
!$OMP SHARED (n_act_orb, list_act, Ne,occ, eff_2_e_from_3_e_aa)
!$OMP DO SCHEDULE (static)
do hh1 = 1, n_act_orb !! alpha
h1 = list_act(hh1)
do hh2 = hh1+1, n_act_orb !! alpha
h2 = list_act(hh2)
do pp1 = 1, n_act_orb !! alpha
p1 = list_act(pp1)
do pp2 = pp1+1, n_act_orb !! alpha
p2 = list_act(pp2)
call give_contrib_for_aaaa(h1,h2,p1,p2,occ,Ne,contrib)
eff_2_e_from_3_e_aa(p2,p1,h2,h1) = contrib
enddo
enddo
enddo
enddo
!$OMP END DO
!$OMP END PARALLEL
END_PROVIDER
subroutine give_contrib_for_aaaa(h1,h2,p1,p2,occ,Ne,contrib)
implicit none
BEGIN_DOC
! gives the contribution for a double excitation (h1,p1)_alpha (h2,p2)_alpha
!
! on top of a determinant whose occupied orbitals is in (occ, Ne)
END_DOC
integer, intent(in) :: h1,h2,p1,p2,occ(N_int*bit_kind_size,2),Ne(2)
double precision, intent(out) :: contrib
integer :: mm,m
double precision :: direct_int, exchange_int
!! h1,p1 == alpha
!! h2,p2 == alpha
contrib = 0.d0
do mm = 1, Ne(1) !! alpha ==> pure parallele spin contribution
m = occ(mm,1)
contrib += three_e_double_parrallel_spin_prov(m,p2,h2,p1,h1)
enddo
do mm = 1, Ne(2) !! beta
m = occ(mm,2)
direct_int = three_e_5_idx_direct_bi_ort(mm,p2,h2,p1,h1)
! exchange between (h1,p1) and (h2,p2)
exchange_int = three_e_5_idx_exch12_bi_ort(mm,p2,h2,p1,h1)
contrib += direct_int - exchange_int
enddo
end
BEGIN_PROVIDER [ double precision, eff_2_e_from_3_e_bb, (mo_num, mo_num, mo_num, mo_num)]
implicit none
BEGIN_DOC
! eff_2_e_from_3_e_ab(p2,p1,h2,h1) = Effective Two-electron operator for beta/beta double excitations
!
! from contractionelec_beta_num with HF density = a^{dagger}_p1_beta a^{dagger}_p2_beta a_h2_beta a_h1_beta
!
! WARNING :: to be coherent with the phase convention used in the Hamiltonian matrix elements, you must fulfill
!
! |||| h2>h1, p2>p1 ||||
END_DOC
integer :: i,h1,p1,h2,p2
integer :: hh1,hh2,pp1,pp2,m,mm
integer :: Ne(2)
integer, allocatable :: occ(:,:)
double precision :: contrib
allocate( occ(N_int*bit_kind_size,2) )
call bitstring_to_list_ab(ref_bitmask,occ,Ne,N_int)
call give_contrib_for_bbbb(1,1 ,1 ,1 ,occ,Ne,contrib)
eff_2_e_from_3_e_bb = 100000000.d0
!$OMP PARALLEL &
!$OMP DEFAULT (NONE) &
!$OMP PRIVATE (hh1, h1, hh2, h2, pp1, p1, pp2, p2, contrib) &
!$OMP SHARED (n_act_orb, list_act, Ne,occ, eff_2_e_from_3_e_bb)
!$OMP DO SCHEDULE (static)
do hh1 = 1, n_act_orb !! beta
h1 = list_act(hh1)
do hh2 = hh1+1, n_act_orb !! beta
h2 = list_act(hh2)
do pp1 = 1, n_act_orb !! beta
p1 = list_act(pp1)
do pp2 = pp1+1, n_act_orb !! beta
p2 = list_act(pp2)
call give_contrib_for_bbbb(h1,h2,p1,p2,occ,Ne,contrib)
eff_2_e_from_3_e_bb(p2,p1,h2,h1) = contrib
enddo
enddo
enddo
enddo
!$OMP END DO
!$OMP END PARALLEL
END_PROVIDER
subroutine give_contrib_for_bbbb(h1,h2,p1,p2,occ,Ne,contrib)
implicit none
BEGIN_DOC
! gives the contribution for a double excitation (h1,p1)_beta (h2,p2)_beta
!
! on top of a determinant whose occupied orbitals is in (occ, Ne)
END_DOC
integer, intent(in) :: h1,h2,p1,p2,occ(N_int*bit_kind_size,2),Ne(2)
double precision, intent(out) :: contrib
integer :: mm,m
double precision :: direct_int, exchange_int
!! h1,p1 == beta
!! h2,p2 == beta
contrib = 0.d0
do mm = 1, Ne(2) !! beta ==> pure parallele spin contribution
m = occ(mm,1)
contrib += three_e_double_parrallel_spin_prov(m,p2,h2,p1,h1)
enddo
do mm = 1, Ne(1) !! alpha
m = occ(mm,1)
direct_int = three_e_5_idx_direct_bi_ort(mm,p2,h2,p1,h1)
! exchange between (h1,p1) and (h2,p2)
exchange_int = three_e_5_idx_exch12_bi_ort(mm,p2,h2,p1,h1)
contrib += direct_int - exchange_int
enddo
end

460
src/tc_bi_ortho/slater_tc_opt_single.irp.f Normal file
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subroutine single_htilde_mu_mat_fock_bi_ortho (Nint, key_j, key_i, hmono, htwoe, hthree, htot)
BEGIN_DOC
! <key_j | H_tilde | key_i> for single excitation ONLY FOR ONE- AND TWO-BODY TERMS
!!
!! WARNING !!
!
! Non hermitian !!
END_DOC
use bitmasks
implicit none
integer, intent(in) :: Nint
integer(bit_kind), intent(in) :: key_j(Nint,2), key_i(Nint,2)
double precision, intent(out) :: hmono, htwoe, hthree, htot
integer :: occ(Nint*bit_kind_size,2)
integer :: Ne(2), i, j, ii, jj, ispin, jspin, k, kk
integer :: degree,exc(0:2,2,2)
integer :: h1, p1, h2, p2, s1, s2
double precision :: get_mo_two_e_integral_tc_int, phase
double precision :: direct_int, exchange_int_12, exchange_int_23, exchange_int_13
integer :: other_spin(2)
integer(bit_kind) :: key_j_core(Nint,2), key_i_core(Nint,2)
other_spin(1) = 2
other_spin(2) = 1
hmono = 0.d0
htwoe = 0.d0
hthree = 0.d0
htot = 0.d0
call get_excitation_degree(key_i, key_j, degree, Nint)
if(degree.ne.1)then
return
endif
call bitstring_to_list_ab(key_i, occ, Ne, Nint)
call get_single_excitation(key_i, key_j, exc, phase, Nint)
call decode_exc(exc,1,h1,p1,h2,p2,s1,s2)
call get_single_excitation_from_fock_tc(key_i,key_j,h1,p1,s1,phase,hmono,htwoe,hthree,htot)
end
subroutine get_single_excitation_from_fock_tc(key_i,key_j,h,p,spin,phase,hmono,htwoe,hthree,htot)
use bitmasks
implicit none
integer,intent(in) :: h,p,spin
double precision, intent(in) :: phase
integer(bit_kind), intent(in) :: key_i(N_int,2), key_j(N_int,2)
double precision, intent(out) :: hmono,htwoe,hthree,htot
integer(bit_kind) :: differences(N_int,2)
integer(bit_kind) :: hole(N_int,2)
integer(bit_kind) :: partcl(N_int,2)
integer :: occ_hole(N_int*bit_kind_size,2)
integer :: occ_partcl(N_int*bit_kind_size,2)
integer :: n_occ_ab_hole(2),n_occ_ab_partcl(2)
integer :: i0,i
double precision :: buffer_c(mo_num),buffer_x(mo_num)
do i=1, mo_num
buffer_c(i) = tc_2e_3idx_coulomb_integrals(i,p,h)
buffer_x(i) = tc_2e_3idx_exchange_integrals(i,p,h)
enddo
do i = 1, N_int
differences(i,1) = xor(key_i(i,1),ref_closed_shell_bitmask(i,1))
differences(i,2) = xor(key_i(i,2),ref_closed_shell_bitmask(i,2))
hole(i,1) = iand(differences(i,1),ref_closed_shell_bitmask(i,1))
hole(i,2) = iand(differences(i,2),ref_closed_shell_bitmask(i,2))
partcl(i,1) = iand(differences(i,1),key_i(i,1))
partcl(i,2) = iand(differences(i,2),key_i(i,2))
enddo
call bitstring_to_list_ab(hole, occ_hole, n_occ_ab_hole, N_int)
call bitstring_to_list_ab(partcl, occ_partcl, n_occ_ab_partcl, N_int)
hmono = mo_bi_ortho_tc_one_e(p,h)
htwoe = fock_op_2_e_tc_closed_shell(p,h)
! holes :: direct terms
do i0 = 1, n_occ_ab_hole(1)
i = occ_hole(i0,1)
htwoe -= buffer_c(i)
enddo
do i0 = 1, n_occ_ab_hole(2)
i = occ_hole(i0,2)
htwoe -= buffer_c(i)
enddo
! holes :: exchange terms
do i0 = 1, n_occ_ab_hole(spin)
i = occ_hole(i0,spin)
htwoe += buffer_x(i)
enddo
! particles :: direct terms
do i0 = 1, n_occ_ab_partcl(1)
i = occ_partcl(i0,1)
htwoe += buffer_c(i)
enddo
do i0 = 1, n_occ_ab_partcl(2)
i = occ_partcl(i0,2)
htwoe += buffer_c(i)
enddo
! particles :: exchange terms
do i0 = 1, n_occ_ab_partcl(spin)
i = occ_partcl(i0,spin)
htwoe -= buffer_x(i)
enddo
hthree = 0.d0
if (three_body_h_tc)then
call three_comp_fock_elem(key_i,h,p,spin,hthree)
endif
htwoe = htwoe * phase
hmono = hmono * phase
hthree = hthree * phase
htot = htwoe + hmono + hthree
end
subroutine three_comp_fock_elem(key_i,h_fock,p_fock,ispin_fock,hthree)
implicit none
integer,intent(in) :: h_fock,p_fock,ispin_fock
integer(bit_kind), intent(in) :: key_i(N_int,2)
double precision, intent(out) :: hthree
integer :: nexc(2),i,ispin,na,nb
integer(bit_kind) :: hole(N_int,2)
integer(bit_kind) :: particle(N_int,2)
integer :: occ_hole(N_int*bit_kind_size,2)
integer :: occ_particle(N_int*bit_kind_size,2)
integer :: n_occ_ab_hole(2),n_occ_ab_particle(2)
integer(bit_kind) :: det_tmp(N_int,2)
nexc(1) = 0
nexc(2) = 0
!! Get all the holes and particles of key_i with respect to the ROHF determinant
do i=1,N_int
hole(i,1) = xor(key_i(i,1),ref_bitmask(i,1))
hole(i,2) = xor(key_i(i,2),ref_bitmask(i,2))
particle(i,1) = iand(hole(i,1),key_i(i,1))
particle(i,2) = iand(hole(i,2),key_i(i,2))
hole(i,1) = iand(hole(i,1),ref_bitmask(i,1))
hole(i,2) = iand(hole(i,2),ref_bitmask(i,2))
nexc(1) = nexc(1) + popcnt(hole(i,1))
nexc(2) = nexc(2) + popcnt(hole(i,2))
enddo
integer :: tmp(2)
!DIR$ FORCEINLINE
call bitstring_to_list_ab(particle, occ_particle, tmp, N_int)
ASSERT (tmp(1) == nexc(1)) ! Number of particles alpha
ASSERT (tmp(2) == nexc(2)) ! Number of particle beta
!DIR$ FORCEINLINE
call bitstring_to_list_ab(hole, occ_hole, tmp, N_int)
ASSERT (tmp(1) == nexc(1)) ! Number of holes alpha
ASSERT (tmp(2) == nexc(2)) ! Number of holes beta
!! Initialize the matrix element with the reference ROHF Slater determinant Fock element
if(ispin_fock==1)then
hthree = fock_a_tot_3e_bi_orth(p_fock,h_fock)
else
hthree = fock_b_tot_3e_bi_orth(p_fock,h_fock)
endif
det_tmp = ref_bitmask
do ispin=1,2
na = elec_num_tab(ispin)
nb = elec_num_tab(iand(ispin,1)+1)
do i=1,nexc(ispin)
!DIR$ FORCEINLINE
call fock_ac_tc_operator( occ_particle(i,ispin), ispin, det_tmp, h_fock,p_fock, ispin_fock, hthree, N_int,na,nb)
!DIR$ FORCEINLINE
call fock_a_tc_operator ( occ_hole (i,ispin), ispin, det_tmp, h_fock,p_fock, ispin_fock, hthree, N_int,na,nb)
enddo
enddo
end
subroutine fock_ac_tc_operator(iorb,ispin,key, h_fock,p_fock, ispin_fock,hthree,Nint,na,nb)
use bitmasks
implicit none
BEGIN_DOC
! Routine that computes the contribution to the three-electron part of the Fock operator
!
! a^dagger_{p_fock} a_{h_fock} of spin ispin_fock
!
! on top of a determinant 'key' on which you ADD an electron of spin ispin in orbital iorb
!
! in output, the determinant key is changed by the ADDITION of that electron
!
! the output hthree is INCREMENTED
END_DOC
integer, intent(in) :: iorb, ispin, Nint, h_fock,p_fock, ispin_fock
integer, intent(inout) :: na, nb
integer(bit_kind), intent(inout) :: key(Nint,2)
double precision, intent(inout) :: hthree
integer :: occ(Nint*bit_kind_size,2)
integer :: other_spin
integer :: k,l,i,jj,j
double precision :: direct_int, exchange_int
if (iorb < 1) then
print *, irp_here, ': iorb < 1'
print *, iorb, mo_num
stop -1
endif
if (iorb > mo_num) then
print *, irp_here, ': iorb > mo_num'
print *, iorb, mo_num
stop -1
endif
ASSERT (ispin > 0)
ASSERT (ispin < 3)
ASSERT (Nint > 0)
integer :: tmp(2)
!DIR$ FORCEINLINE
call bitstring_to_list_ab(key, occ, tmp, Nint)
ASSERT (tmp(1) == elec_alpha_num)
ASSERT (tmp(2) == elec_beta_num)
k = shiftr(iorb-1,bit_kind_shift)+1
ASSERT (k >0)
l = iorb - shiftl(k-1,bit_kind_shift)-1
ASSERT (l >= 0)
key(k,ispin) = ibset(key(k,ispin),l)
other_spin = iand(ispin,1)+1
!! spin of other electrons == ispin
if(ispin == ispin_fock)then
!! in what follows :: jj == other electrons in the determinant
!! :: iorb == electron that has been added of spin ispin
!! :: p_fock, h_fock == hole particle of spin ispin_fock
!! jj = ispin = ispin_fock >> pure parallel spin
do j = 1, na
jj = occ(j,ispin)
hthree += three_e_single_parrallel_spin_prov(jj,iorb,p_fock,h_fock)
enddo
!! spin of jj == other spin than ispin AND ispin_fock
!! exchange between the iorb and (h_fock, p_fock)
do j = 1, nb
jj = occ(j,other_spin)
direct_int = three_e_4_idx_direct_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
exchange_int = three_e_4_idx_exch12_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
hthree += direct_int - exchange_int
enddo
else !! ispin NE to ispin_fock
!! jj = ispin BUT NON EQUAL TO ispin_fock
!! exchange between the jj and iorb
do j = 1, na
jj = occ(j,ispin)
direct_int = three_e_4_idx_direct_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
exchange_int = three_e_4_idx_exch23_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
hthree += direct_int - exchange_int
enddo
!! jj = other_spin than ispin BUT jj == ispin_fock
!! exchange between jj and (h_fock,p_fock)
do j = 1, nb
jj = occ(j,other_spin)
direct_int = three_e_4_idx_direct_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
exchange_int = three_e_4_idx_exch13_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
hthree += direct_int - exchange_int
enddo
endif
na = na+1
end
subroutine fock_a_tc_operator(iorb,ispin,key, h_fock,p_fock, ispin_fock,hthree,Nint,na,nb)
use bitmasks
implicit none
BEGIN_DOC
! Routine that computes the contribution to the three-electron part of the Fock operator
!
! a^dagger_{p_fock} a_{h_fock} of spin ispin_fock
!
! on top of a determinant 'key' on which you REMOVE an electron of spin ispin in orbital iorb
!
! in output, the determinant key is changed by the REMOVAL of that electron
!
! the output hthree is INCREMENTED
END_DOC
integer, intent(in) :: iorb, ispin, Nint, h_fock,p_fock, ispin_fock
integer, intent(inout) :: na, nb
integer(bit_kind), intent(inout) :: key(Nint,2)
double precision, intent(inout) :: hthree
double precision :: direct_int, exchange_int
integer :: occ(Nint*bit_kind_size,2)
integer :: other_spin
integer :: k,l,i,jj,mm,j,m
integer :: tmp(2)
ASSERT (iorb > 0)
ASSERT (ispin > 0)
ASSERT (ispin < 3)
ASSERT (Nint > 0)
k = shiftr(iorb-1,bit_kind_shift)+1
ASSERT (k>0)
l = iorb - shiftl(k-1,bit_kind_shift)-1
key(k,ispin) = ibclr(key(k,ispin),l)
other_spin = iand(ispin,1)+1
!DIR$ FORCEINLINE
call bitstring_to_list_ab(key, occ, tmp, Nint)
na = na-1
!! spin of other electrons == ispin
if(ispin == ispin_fock)then
!! in what follows :: jj == other electrons in the determinant
!! :: iorb == electron that has been added of spin ispin
!! :: p_fock, h_fock == hole particle of spin ispin_fock
!! jj = ispin = ispin_fock >> pure parallel spin
do j = 1, na
jj = occ(j,ispin)
hthree -= three_e_single_parrallel_spin_prov(jj,iorb,p_fock,h_fock)
enddo
!! spin of jj == other spin than ispin AND ispin_fock
!! exchange between the iorb and (h_fock, p_fock)
do j = 1, nb
jj = occ(j,other_spin)
direct_int = three_e_4_idx_direct_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
exchange_int = three_e_4_idx_exch12_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
hthree -= direct_int - exchange_int
enddo
else !! ispin NE to ispin_fock
!! jj = ispin BUT NON EQUAL TO ispin_fock
!! exchange between the jj and iorb
do j = 1, na
jj = occ(j,ispin)
direct_int = three_e_4_idx_direct_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
exchange_int = three_e_4_idx_exch23_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
hthree -= direct_int - exchange_int
enddo
!! jj = other_spin than ispin BUT jj == ispin_fock
!! exchange between jj and (h_fock,p_fock)
do j = 1, nb
jj = occ(j,other_spin)
direct_int = three_e_4_idx_direct_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
exchange_int = three_e_4_idx_exch13_bi_ort(jj,iorb,p_fock,h_fock) ! USES 4-IDX TENSOR
hthree -= direct_int - exchange_int
enddo
endif
end
BEGIN_PROVIDER [double precision, fock_op_2_e_tc_closed_shell, (mo_num, mo_num) ]
implicit none
BEGIN_DOC
! Closed-shell part of the Fock operator for the TC operator
END_DOC
integer :: h0,p0,h,p,k0,k,i
integer :: n_occ_ab(2)
integer :: occ(N_int*bit_kind_size,2)
integer :: n_occ_ab_virt(2)
integer :: occ_virt(N_int*bit_kind_size,2)
integer(bit_kind) :: key_test(N_int)
integer(bit_kind) :: key_virt(N_int,2)
double precision :: accu
fock_op_2_e_tc_closed_shell = -1000.d0
call bitstring_to_list_ab(ref_closed_shell_bitmask, occ, n_occ_ab, N_int)
do i = 1, N_int
key_virt(i,1) = full_ijkl_bitmask(i)
key_virt(i,2) = full_ijkl_bitmask(i)
key_virt(i,1) = xor(key_virt(i,1),ref_closed_shell_bitmask(i,1))
key_virt(i,2) = xor(key_virt(i,2),ref_closed_shell_bitmask(i,2))
enddo
call bitstring_to_list_ab(key_virt, occ_virt, n_occ_ab_virt, N_int)
! docc ---> virt single excitations
do h0 = 1, n_occ_ab(1)
h=occ(h0,1)
do p0 = 1, n_occ_ab_virt(1)
p = occ_virt(p0,1)
accu = 0.d0
do k0 = 1, n_occ_ab(1)
k = occ(k0,1)
accu += 2.d0 * tc_2e_3idx_coulomb_integrals(k,p,h) - tc_2e_3idx_exchange_integrals(k,p,h)
enddo
fock_op_2_e_tc_closed_shell(p,h) = accu
enddo
enddo
do h0 = 1, n_occ_ab_virt(1)
h = occ_virt(h0,1)
do p0 = 1, n_occ_ab(1)
p=occ(p0,1)
accu = 0.d0
do k0 = 1, n_occ_ab(1)
k = occ(k0,1)
accu += 2.d0 * tc_2e_3idx_coulomb_integrals(k,p,h) - tc_2e_3idx_exchange_integrals(k,p,h)
enddo
fock_op_2_e_tc_closed_shell(p,h) = accu
enddo
enddo
! virt ---> virt single excitations
do h0 = 1, n_occ_ab_virt(1)
h=occ_virt(h0,1)
do p0 = 1, n_occ_ab_virt(1)
p = occ_virt(p0,1)
accu = 0.d0
do k0 = 1, n_occ_ab(1)
k = occ(k0,1)
accu += 2.d0 * tc_2e_3idx_coulomb_integrals(k,p,h) - tc_2e_3idx_exchange_integrals(k,p,h)
enddo
fock_op_2_e_tc_closed_shell(p,h) = accu
enddo
enddo
do h0 = 1, n_occ_ab_virt(1)
h = occ_virt(h0,1)
do p0 = 1, n_occ_ab_virt(1)
p=occ_virt(p0,1)
accu = 0.d0
do k0 = 1, n_occ_ab(1)
k = occ(k0,1)
accu += 2.d0 * tc_2e_3idx_coulomb_integrals(k,p,h) - tc_2e_3idx_exchange_integrals(k,p,h)
enddo
fock_op_2_e_tc_closed_shell(p,h) = accu
enddo
enddo
! docc ---> docc single excitations
do h0 = 1, n_occ_ab(1)
h=occ(h0,1)
do p0 = 1, n_occ_ab(1)
p = occ(p0,1)
accu = 0.d0
do k0 = 1, n_occ_ab(1)
k = occ(k0,1)
accu += 2.d0 * tc_2e_3idx_coulomb_integrals(k,p,h) - tc_2e_3idx_exchange_integrals(k,p,h)
enddo
fock_op_2_e_tc_closed_shell(p,h) = accu
enddo
enddo
do h0 = 1, n_occ_ab(1)
h = occ(h0,1)
do p0 = 1, n_occ_ab(1)
p=occ(p0,1)
accu = 0.d0
do k0 = 1, n_occ_ab(1)
k = occ(k0,1)
accu += 2.d0 * tc_2e_3idx_coulomb_integrals(k,p,h) - tc_2e_3idx_exchange_integrals(k,p,h)
enddo
fock_op_2_e_tc_closed_shell(p,h) = accu
enddo
enddo
! do i = 1, mo_num
! write(*,'(100(F10.5,X))')fock_op_2_e_tc_closed_shell(:,i)
! enddo
END_PROVIDER

140
src/tc_bi_ortho/symmetrized_3_e_int_prov.irp.f Normal file
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@ -0,0 +1,140 @@
BEGIN_PROVIDER [ double precision, three_e_diag_parrallel_spin_prov, (mo_num, mo_num, mo_num)]
BEGIN_DOC
!
! matrix element of the -L three-body operator ON A BI ORTHONORMAL BASIS
!
! three_e_diag_parrallel_spin_prov(m,j,i) = All combinations of the form <mji|-L|mji> for same spin matrix elements
!
! notice the -1 sign: in this way three_e_diag_parrallel_spin_prov can be directly used to compute Slater rules with a + sign
!
END_DOC
implicit none
integer :: i, j, m
double precision :: integral, wall1, wall0, three_e_diag_parrallel_spin
three_e_diag_parrallel_spin_prov = 0.d0
print *, ' Providing the three_e_diag_parrallel_spin_prov ...'
integral = three_e_diag_parrallel_spin(1,1,1) ! to provide all stuffs
call wall_time(wall0)
!$OMP PARALLEL &
!$OMP DEFAULT (NONE) &
!$OMP PRIVATE (i,j,m,integral) &
!$OMP SHARED (mo_num,three_e_diag_parrallel_spin_prov)
!$OMP DO SCHEDULE (dynamic)
do i = 1, mo_num
do j = 1, mo_num
do m = j, mo_num
three_e_diag_parrallel_spin_prov(m,j,i) = three_e_diag_parrallel_spin(m,j,i)
enddo
enddo
enddo
!$OMP END DO
!$OMP END PARALLEL
do i = 1, mo_num
do j = 1, mo_num
do m = 1, j
three_e_diag_parrallel_spin_prov(m,j,i) = three_e_diag_parrallel_spin_prov(j,m,i)
enddo
enddo
enddo
call wall_time(wall1)
print *, ' wall time for three_e_diag_parrallel_spin_prov', wall1 - wall0
END_PROVIDER
BEGIN_PROVIDER [ double precision, three_e_single_parrallel_spin_prov, (mo_num, mo_num, mo_num, mo_num)]
BEGIN_DOC
!
! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF SINGLE EXCITATIONS AND BI ORTHO MOs
!
! three_e_single_parrallel_spin_prov(m,j,k,i) = All combination of <mjk|-L|mji> for same spin matrix elements
!
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
!
END_DOC
implicit none
integer :: i, j, k, m
double precision :: integral, wall1, wall0, three_e_single_parrallel_spin
three_e_single_parrallel_spin_prov = 0.d0
print *, ' Providing the three_e_single_parrallel_spin_prov ...'
integral = three_e_single_parrallel_spin(1,1,1,1)
call wall_time(wall0)
!$OMP PARALLEL &
!$OMP DEFAULT (NONE) &
!$OMP PRIVATE (i,j,k,m,integral) &
!$OMP SHARED (mo_num,three_e_single_parrallel_spin_prov)
!$OMP DO SCHEDULE (dynamic)
do i = 1, mo_num
do k = 1, mo_num
do j = 1, mo_num
do m = 1, mo_num
three_e_single_parrallel_spin_prov(m,j,k,i) = three_e_single_parrallel_spin(m,j,k,i)
enddo
enddo
enddo
enddo
!$OMP END DO
!$OMP END PARALLEL
call wall_time(wall1)
print *, ' wall time for three_e_single_parrallel_spin_prov', wall1 - wall0
END_PROVIDER
! ---
BEGIN_PROVIDER [ double precision, three_e_double_parrallel_spin_prov, (mo_num, mo_num, mo_num, mo_num, mo_num)]
BEGIN_DOC
!
! matrix element of the -L three-body operator FOR THE DIRECT TERMS OF DOUBLE EXCITATIONS AND BI ORTHO MOs
!
! three_e_double_parrallel_spin_prov(m,l,j,k,i) = <mlk|-L|mji> ::: notice that i is the RIGHT MO and k is the LEFT MO
!
! notice the -1 sign: in this way three_e_3_idx_direct_bi_ort can be directly used to compute Slater rules with a + sign
END_DOC
implicit none
integer :: i, j, k, m, l
double precision :: integral, wall1, wall0, three_e_double_parrallel_spin
three_e_double_parrallel_spin_prov = 0.d0
print *, ' Providing the three_e_double_parrallel_spin_prov ...'
call wall_time(wall0)
integral = three_e_double_parrallel_spin(1,1,1,1,1)
!$OMP PARALLEL &
!$OMP DEFAULT (NONE) &
!$OMP PRIVATE (i,j,k,m,l,integral) &
!$OMP SHARED (mo_num,three_e_double_parrallel_spin_prov)
!$OMP DO SCHEDULE (dynamic)
do i = 1, mo_num
do k = 1, mo_num
do j = 1, mo_num
do l = 1, mo_num
do m = 1, mo_num
three_e_double_parrallel_spin_prov(m,l,j,k,i) = three_e_double_parrallel_spin(m,l,j,k,i)
enddo
enddo
enddo
enddo
enddo
!$OMP END DO
!$OMP END PARALLEL
call wall_time(wall1)
print *, ' wall time for three_e_double_parrallel_spin_prov', wall1 - wall0
END_PROVIDER

102
src/tc_bi_ortho/test_normal_order.irp.f
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@ -10,6 +10,7 @@ program test_normal_order
read_wf = .True. read_wf = .True.
touch read_wf touch read_wf
touch my_grid_becke my_n_pt_r_grid my_n_pt_a_grid touch my_grid_becke my_n_pt_r_grid my_n_pt_a_grid
call provide_all_three_ints_bi_ortho
call test call test
end end
@ -28,7 +29,7 @@ subroutine test
s2 = 2 s2 = 2
accu = 0.d0 accu = 0.d0
do h1 = 1, elec_beta_num do h1 = 1, elec_beta_num
do p1 = elec_beta_num+1, mo_num do p1 = elec_alpha_num+1, mo_num
do h2 = 1, elec_beta_num do h2 = 1, elec_beta_num
do p2 = elec_beta_num+1, mo_num do p2 = elec_beta_num+1, mo_num
det_i = ref_bitmask det_i = ref_bitmask
@ -38,36 +39,93 @@ subroutine test
call get_excitation_degree(ref_bitmask,det_i,degree,N_int) call get_excitation_degree(ref_bitmask,det_i,degree,N_int)
call get_excitation(ref_bitmask,det_i,exc,degree,phase,N_int) call get_excitation(ref_bitmask,det_i,exc,degree,phase,N_int)
hthree *= phase hthree *= phase
normal = normal_two_body_bi_orth_ab(p2,h2,p1,h1) ! !normal = normal_two_body_bi_orth_ab(p2,h2,p1,h1)
call three_comp_two_e_elem(det_i,h1,h2,p1,p2,s1,s2,normal)
! normal = eff_2_e_from_3_e_ab(p2,p1,h2,h1)
accu += dabs(hthree-normal) accu += dabs(hthree-normal)
enddo enddo
enddo enddo
enddo enddo
enddo enddo
print*,'accu opposite spin = ',accu print*,'accu opposite spin = ',accu
stop
s1 = 2 ! p2=6
s2 = 2 ! p1=5
accu = 0.d0 ! h2=2
do h1 = 1, elec_beta_num ! h1=1
do p1 = elec_beta_num+1, mo_num
do h2 = h1+1, elec_beta_num s1 = 1
do p2 = elec_beta_num+1, mo_num s2 = 1
det_i = ref_bitmask accu = 0.d0
call do_single_excitation(det_i,h1,p1,s1,i_ok) do h1 = 1, elec_alpha_num
call do_single_excitation(det_i,h2,p2,s2,i_ok) do p1 = elec_alpha_num+1, mo_num
if(i_ok.ne.1)cycle do p2 = p1+1, mo_num
call htilde_mu_mat_bi_ortho(det_i,ref_bitmask,N_int,hmono,htwoe,hthree,htilde_ij) do h2 = h1+1, elec_alpha_num
call get_excitation_degree(ref_bitmask,det_i,degree,N_int) det_i = ref_bitmask
call get_excitation(ref_bitmask,det_i,exc,degree,phase,N_int) call do_single_excitation(det_i,h1,p1,s1,i_ok)
hthree *= phase if(i_ok.ne.1)cycle
normal = normal_two_body_bi_orth_aa_bb(p2,h2,p1,h1) call do_single_excitation(det_i,h2,p2,s2,i_ok)
accu += dabs(hthree-normal) if(i_ok.ne.1)cycle
enddo call htilde_mu_mat_bi_ortho(det_i,ref_bitmask,N_int,hmono,htwoe,hthree,htilde_ij)
call get_excitation_degree(ref_bitmask,det_i,degree,N_int)
call get_excitation(ref_bitmask,det_i,exc,degree,phase,N_int)
integer :: hh1, pp1, hh2, pp2, ss1, ss2
call decode_exc(exc, 2, hh1, pp1, hh2, pp2, ss1, ss2)
hthree *= phase
! normal = normal_two_body_bi_orth_aa_bb(p2,h2,p1,h1)
normal = eff_2_e_from_3_e_aa(p2,p1,h2,h1)
if(dabs(hthree).lt.1.d-10)cycle
if(dabs(hthree-normal).gt.1.d-10)then
print*,pp2,pp1,hh2,hh1
print*,p2,p1,h2,h1
print*,hthree,normal,dabs(hthree-normal)
stop
endif
! print*,hthree,normal,dabs(hthree-normal)
accu += dabs(hthree-normal)
enddo enddo
enddo enddo
enddo enddo
print*,'accu same spin = ',accu enddo
print*,'accu same spin alpha = ',accu
s1 = 2
s2 = 2
accu = 0.d0
do h1 = 1, elec_beta_num
do p1 = elec_beta_num+1, mo_num
do p2 = p1+1, mo_num
do h2 = h1+1, elec_beta_num
det_i = ref_bitmask
call do_single_excitation(det_i,h1,p1,s1,i_ok)
if(i_ok.ne.1)cycle
call do_single_excitation(det_i,h2,p2,s2,i_ok)
if(i_ok.ne.1)cycle
call htilde_mu_mat_bi_ortho(det_i,ref_bitmask,N_int,hmono,htwoe,hthree,htilde_ij)
call get_excitation_degree(ref_bitmask,det_i,degree,N_int)
call get_excitation(ref_bitmask,det_i,exc,degree,phase,N_int)
call decode_exc(exc, 2, hh1, pp1, hh2, pp2, ss1, ss2)
hthree *= phase
! normal = normal_two_body_bi_orth_aa_bb(p2,h2,p1,h1)
normal = eff_2_e_from_3_e_bb(p2,p1,h2,h1)
if(dabs(hthree).lt.1.d-10)cycle
if(dabs(hthree-normal).gt.1.d-10)then
print*,pp2,pp1,hh2,hh1
print*,p2,p1,h2,h1
print*,hthree,normal,dabs(hthree-normal)
stop
endif
! print*,hthree,normal,dabs(hthree-normal)
accu += dabs(hthree-normal)
enddo
enddo
enddo
enddo
print*,'accu same spin beta = ',accu
end end

303
src/tc_bi_ortho/test_tc_bi_ortho.irp.f
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@ -11,121 +11,210 @@ program tc_bi_ortho
touch read_wf touch read_wf
touch my_grid_becke my_n_pt_r_grid my_n_pt_a_grid touch my_grid_becke my_n_pt_r_grid my_n_pt_a_grid
! call routine_2 ! call test_slater_tc_opt
call test_rout call timing_tot
! call timing_diag
! call timing_single
! call timing_double
end end
subroutine test_rout subroutine test_slater_tc_opt
implicit none implicit none
integer :: i,j,ii,jj integer :: i,j,degree
use bitmasks ! you need to include the bitmasks_module.f90 features double precision :: hmono, htwoe, htot, hthree
integer(bit_kind), allocatable :: det_i(:,:) double precision :: hnewmono, hnewtwoe, hnewthree, hnewtot
allocate(det_i(N_int,2)) double precision :: accu_d ,i_count, accu
det_i(:,:)= psi_det(:,:,1) accu = 0.d0
call debug_det(det_i,N_int) accu_d = 0.d0
integer, allocatable :: occ(:,:) i_count = 0.d0
integer :: n_occ_ab(2)
allocate(occ(N_int*bit_kind_size,2))
call bitstring_to_list_ab(det_i, occ, n_occ_ab, N_int)
double precision :: hmono, htwoe, htot
call diag_htilde_mu_mat_bi_ortho(N_int, det_i, hmono, htwoe, htot)
print*,'hmono, htwoe, htot'
print*, hmono, htwoe, htot
print*,'alpha electrons orbital occupancy'
do i = 1, n_occ_ab(1) ! browsing the alpha electrons
j = occ(i,1)
print*,j,mo_bi_ortho_tc_one_e(j,j)
enddo
print*,'beta electrons orbital occupancy'
do i = 1, n_occ_ab(2) ! browsing the beta electrons
j = occ(i,2)
print*,j,mo_bi_ortho_tc_one_e(j,j)
enddo
print*,'alpha beta'
do i = 1, n_occ_ab(1)
ii = occ(i,1)
do j = 1, n_occ_ab(2)
jj = occ(j,2)
print*,ii,jj,mo_bi_ortho_tc_two_e(jj,ii,jj,ii)
enddo
enddo
print*,'alpha alpha'
do i = 1, n_occ_ab(1)
ii = occ(i,1)
do j = 1, n_occ_ab(1)
jj = occ(j,1)
print*,ii,jj,mo_bi_ortho_tc_two_e(jj,ii,jj,ii), mo_bi_ortho_tc_two_e(ii,jj,jj,ii)
enddo
enddo
print*,'beta beta'
do i = 1, n_occ_ab(2)
ii = occ(i,2)
do j = 1, n_occ_ab(2)
jj = occ(j,2)
print*,ii,jj,mo_bi_ortho_tc_two_e(jj,ii,jj,ii), mo_bi_ortho_tc_two_e(ii,jj,jj,ii)
enddo
enddo
end
subroutine routine_2
implicit none
integer :: i
double precision :: bi_ortho_mo_ints
print*,'H matrix'
do i = 1, N_det do i = 1, N_det
write(*,'(1000(F16.5,X))')htilde_matrix_elmt_bi_ortho(:,i) do j = 1,N_det
enddo call htilde_mu_mat_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
i = 1 call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hnewmono, hnewtwoe, hnewthree, hnewtot)
double precision :: phase if(dabs(htot).gt.1.d-15)then
integer :: degree,h1, p1, h2, p2, s1, s2, exc(0:2,2,2) i_count += 1.D0
call get_excitation_degree(ref_bitmask, psi_det(1,1,i), degree, N_int) accu += dabs(htot-hnewtot)
if(degree==2)then if(dabs(htot-hnewtot).gt.1.d-8.or.dabs(htot-hnewtot).gt.dabs(htot))then
call get_double_excitation(ref_bitmask, psi_det(1,1,i), exc, phase, N_int) call get_excitation_degree(psi_det(1,1,j), psi_det(1,1,i),degree,N_int)
call decode_exc(exc, 2, h1, p1, h2, p2, s1, s2) print*,j,i,degree
print*,'h1,h2,p1,p2' call debug_det(psi_det(1,1,i),N_int)
print*, h1,h2,p1,p2 call debug_det(psi_det(1,1,j),N_int)
print*,mo_bi_ortho_tc_two_e(p1,p2,h1,h2),mo_bi_ortho_tc_two_e(h1,h2,p1,p2) print*,htot,hnewtot,dabs(htot-hnewtot)
endif print*,hthree,hnewthree,dabs(hthree-hnewthree)
stop
endif
print*,'coef' endif
do i = 1, ao_num enddo
print*,i,mo_l_coef(i,8),mo_r_coef(i,8)
enddo
! print*,'mdlqfmlqgmqglj'
! print*,'mo_bi_ortho_tc_two_e()',mo_bi_ortho_tc_two_e(2,2,3,3)
! print*,'bi_ortho_mo_ints ',bi_ortho_mo_ints(2,2,3,3)
print*,'Overlap'
do i = 1, mo_num
write(*,'(100(F16.10,X))')overlap_bi_ortho(:,i)
enddo enddo
print*,'accu = ',accu/i_count
end end
subroutine routine subroutine timing_tot
implicit none implicit none
double precision :: hmono,htwoe,hthree,htot integer :: i,j
integer(bit_kind), allocatable :: key1(:,:) double precision :: wall0, wall1
integer(bit_kind), allocatable :: key2(:,:) double precision, allocatable :: mat_old(:,:),mat_new(:,:)
allocate(key1(N_int,2),key2(N_int,2)) double precision :: hmono, htwoe, hthree, htot, i_count
use bitmasks integer :: degree
key1 = ref_bitmask call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,1), psi_det(1,1,2), N_int, hmono, htwoe, hthree, htot)
call htilde_mu_mat_bi_ortho(key1,key1, N_int, hmono,htwoe,hthree,htot) call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,1), psi_det(1,1,2), N_int, hmono, htwoe, hthree, htot)
key2 = key1 call wall_time(wall0)
integer :: h,p,i_ok i_count = 0.d0
h = 1 do i = 1, N_det
p = 8 do j = 1, N_det
call do_single_excitation(key2,h,p,1,i_ok) ! call get_excitation_degree(psi_det(1,1,j), psi_det(1,1,i),degree,N_int)
call debug_det(key2,N_int) i_count += 1.d0
call htilde_mu_mat_bi_ortho(key2,key1, N_int, hmono,htwoe,hthree,htot) call htilde_mu_mat_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
! print*,'fock_matrix_tc_mo_alpha(p,h) = ',fock_matrix_tc_mo_alpha(p,h) enddo
print*,'htot = ',htot enddo
print*,'hmono = ',hmono call wall_time(wall1)
print*,'htwoe = ',htwoe print*,'i_count = ',i_count
double precision :: bi_ortho_mo_ints print*,'time for old hij for total = ',wall1 - wall0
print*,'bi_ortho_mo_ints(1,p,1,h)',bi_ortho_mo_ints(1,p,1,h)
call wall_time(wall0)
i_count = 0.d0
do i = 1, N_det
do j = 1, N_det
! call get_excitation_degree(psi_det(1,1,j), psi_det(1,1,i),degree,N_int)
i_count += 1.d0
call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
enddo
enddo
call wall_time(wall1)
print*,'i_count = ',i_count
print*,'time for new hij for total = ',wall1 - wall0
call i_H_j(psi_det(1,1,1), psi_det(1,1,2),N_int,htot)
call wall_time(wall0)
i_count = 0.d0
do i = 1, N_det
do j = 1, N_det
call i_H_j(psi_det(1,1,j), psi_det(1,1,i),N_int,htot)
i_count += 1.d0
enddo
enddo
call wall_time(wall1)
print*,'i_count = ',i_count
print*,'time for new hij STANDARD = ',wall1 - wall0
end end
subroutine timing_diag
implicit none
integer :: i,j
double precision :: wall0, wall1
double precision, allocatable :: mat_old(:,:),mat_new(:,:)
double precision :: hmono, htwoe, hthree, htot, i_count
integer :: degree
call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,1), psi_det(1,1,1), N_int, hmono, htwoe, hthree, htot)
call wall_time(wall0)
i_count = 0.d0
do i = 1, N_det
do j = i,i
i_count += 1.d0
call htilde_mu_mat_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
enddo
enddo
call wall_time(wall1)
print*,'i_count = ',i_count
print*,'time for old hij for diagonal= ',wall1 - wall0
call wall_time(wall0)
i_count = 0.d0
do i = 1, N_det
do j = i,i
i_count += 1.d0
call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
enddo
enddo
call wall_time(wall1)
print*,'i_count = ',i_count
print*,'time for new hij for diagonal= ',wall1 - wall0
end
subroutine timing_single
implicit none
integer :: i,j
double precision :: wall0, wall1,accu
double precision, allocatable :: mat_old(:,:),mat_new(:,:)
double precision :: hmono, htwoe, hthree, htot, i_count
integer :: degree
call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,1), psi_det(1,1,1), N_int, hmono, htwoe, hthree, htot)
i_count = 0.d0
accu = 0.d0
do i = 1, N_det
do j = 1, N_det
call get_excitation_degree(psi_det(1,1,j), psi_det(1,1,i),degree,N_int)
if(degree.ne.1)cycle
i_count += 1.d0
call wall_time(wall0)
call htilde_mu_mat_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
call wall_time(wall1)
accu += wall1 - wall0
enddo
enddo
print*,'i_count = ',i_count
print*,'time for old hij for singles = ',accu
i_count = 0.d0
accu = 0.d0
do i = 1, N_det
do j = 1, N_det
call get_excitation_degree(psi_det(1,1,j), psi_det(1,1,i),degree,N_int)
if(degree.ne.1)cycle
i_count += 1.d0
call wall_time(wall0)
call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
call wall_time(wall1)
accu += wall1 - wall0
enddo
enddo
print*,'i_count = ',i_count
print*,'time for new hij for singles = ',accu
end
subroutine timing_double
implicit none
integer :: i,j
double precision :: wall0, wall1,accu
double precision, allocatable :: mat_old(:,:),mat_new(:,:)
double precision :: hmono, htwoe, hthree, htot, i_count
integer :: degree
call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,1), psi_det(1,1,1), N_int, hmono, htwoe, hthree, htot)
i_count = 0.d0
accu = 0.d0
do i = 1, N_det
do j = 1, N_det
call get_excitation_degree(psi_det(1,1,j), psi_det(1,1,i),degree,N_int)
if(degree.ne.2)cycle
i_count += 1.d0
call wall_time(wall0)
call htilde_mu_mat_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
call wall_time(wall1)
accu += wall1 - wall0
enddo
enddo
print*,'i_count = ',i_count
print*,'time for old hij for doubles = ',accu
i_count = 0.d0
accu = 0.d0
do i = 1, N_det
do j = 1, N_det
call get_excitation_degree(psi_det(1,1,j), psi_det(1,1,i),degree,N_int)
if(degree.ne.2)cycle
i_count += 1.d0
call wall_time(wall0)
call htilde_mu_mat_opt_bi_ortho(psi_det(1,1,j), psi_det(1,1,i), N_int, hmono, htwoe, hthree, htot)
call wall_time(wall1)
accu += wall1 - wall0
enddo
enddo
call wall_time(wall1)
print*,'i_count = ',i_count
print*,'time for new hij for doubles = ',accu
end

48
src/tc_keywords/EZFIO.cfg
View File

@ -136,36 +136,12 @@ doc: nb of Gaussians used to fit Jastrow fcts
interface: ezfio,provider,ocaml interface: ezfio,provider,ocaml
default: 20 default: 20
[max_dim_diis_tcscf]
type: integer
doc: Maximum size of the DIIS extrapolation procedure
interface: ezfio,provider,ocaml
default: 15
[threshold_diis_tcscf]
type: Threshold
doc: Threshold on the convergence of the DIIS error vector during a TCSCF calculation. If 0. is chosen, the square root of thresh_tcscf will be used.
interface: ezfio,provider,ocaml
default: 0.
[level_shift_tcscf]
type: Positive_float
doc: Energy shift on the virtual MOs to improve TCSCF convergence
interface: ezfio,provider,ocaml
default: 0.
[tcscf_algorithm] [tcscf_algorithm]
type: character*(32) type: character*(32)
doc: Type of TCSCF algorithm used. Possible choices are [Simple | DIIS] doc: Type of TCSCF algorithm used. Possible choices are [Simple | DIIS]
interface: ezfio,provider,ocaml interface: ezfio,provider,ocaml
default: Simple default: Simple
[im_thresh_tcscf]
type: Threshold
doc: Thresholds on the Imag part of energy
interface: ezfio,provider,ocaml
default: 1.e-7
[test_cycle_tc] [test_cycle_tc]
type: logical type: logical
doc: If |true|, the integrals of the three-body jastrow are computed with cycles doc: If |true|, the integrals of the three-body jastrow are computed with cycles
@ -184,3 +160,27 @@ doc: Threshold to determine if non-diagonal elements of L.T x R are close enouph
interface: ezfio,provider,ocaml interface: ezfio,provider,ocaml
default: 1.e-6 default: 1.e-6
[max_dim_diis_tcscf]
type: integer
doc: Maximum size of the DIIS extrapolation procedure
interface: ezfio,provider,ocaml
default: 15
[threshold_diis_tcscf]
type: Threshold
doc: Threshold on the convergence of the DIIS error vector during a TCSCF calculation. If 0. is chosen, the square root of thresh_tcscf will be used.
interface: ezfio,provider,ocaml
default: 0.
[level_shift_tcscf]
type: Positive_float
doc: Energy shift on the virtual MOs to improve TCSCF convergence
interface: ezfio,provider,ocaml
default: 0.
[im_thresh_tcscf]
type: Threshold
doc: Thresholds on the Imag part of energy
interface: ezfio,provider,ocaml
default: 1.e-7

9
src/tc_scf/fock_tc.irp.f
View File

@ -41,6 +41,15 @@
!! rho_b(l,j) * < l k| T | i j> !! rho_b(l,j) * < l k| T | i j>
!two_e_tc_non_hermit_integral_seq_beta (k,i) -= density_b * ao_two_e_tc_tot(k,j,l,i) !two_e_tc_non_hermit_integral_seq_beta (k,i) -= density_b * ao_two_e_tc_tot(k,j,l,i)
!! rho(l,j) * < k l| T | i j>
!two_e_tc_non_hermit_integral_alpha(k,i) += density * ao_two_e_tc_tot(l,j,k,i)
!! rho(l,j) * < k l| T | i j>
!two_e_tc_non_hermit_integral_beta (k,i) += density * ao_two_e_tc_tot(l,j,k,i)
!! rho_a(l,j) * < l k| T | i j>
!two_e_tc_non_hermit_integral_alpha(k,i) -= density_a * ao_two_e_tc_tot(k,j,l,i)
!! rho_b(l,j) * < l k| T | i j>
!two_e_tc_non_hermit_integral_beta (k,i) -= density_b * ao_two_e_tc_tot(k,j,l,i)
! rho(l,j) * < k l| T | i j> ! rho(l,j) * < k l| T | i j>
two_e_tc_non_hermit_integral_seq_alpha(k,i) += density * ao_two_e_tc_tot(k,i,l,j) two_e_tc_non_hermit_integral_seq_alpha(k,i) += density * ao_two_e_tc_tot(k,i,l,j)
! rho(l,j) * < k l| T | i j> ! rho(l,j) * < k l| T | i j>

336
src/tc_scf/rh_tcscf.irp.f Normal file
View File

@ -0,0 +1,336 @@
! ---
subroutine rh_tcscf()
BEGIN_DOC
!
! Roothaan-Hall algorithm for TC-SCF calculation
!
END_DOC
implicit none
integer :: i, j
integer :: iteration_TCSCF, dim_DIIS, index_dim_DIIS
double precision :: energy_TCSCF, energy_TCSCF_1e, energy_TCSCF_2e, energy_TCSCF_3e, gradie_TCSCF
double precision :: energy_TCSCF_previous, delta_energy_TCSCF
double precision :: gradie_TCSCF_previous, delta_gradie_TCSCF
double precision :: max_error_DIIS_TCSCF
double precision :: level_shift_save
double precision :: delta_energy_tmp, delta_gradie_tmp
double precision, allocatable :: F_DIIS(:,:,:), e_DIIS(:,:,:)
double precision, allocatable :: mo_r_coef_save(:,:), mo_l_coef_save(:,:)
logical, external :: qp_stop
!PROVIDE ao_md5 mo_occ
PROVIDE level_shift_TCSCF
allocate( mo_r_coef_save(ao_num,mo_num), mo_l_coef_save(ao_num,mo_num) &
, F_DIIS(ao_num,ao_num,max_dim_DIIS_TCSCF), e_DIIS(ao_num,ao_num,max_dim_DIIS_TCSCF) )
F_DIIS = 0.d0
e_DIIS = 0.d0
mo_l_coef_save = 0.d0
mo_r_coef_save = 0.d0
call write_time(6)
! ---
! Initialize energies and density matrices
energy_TCSCF_previous = TC_HF_energy
energy_TCSCF_1e = TC_HF_one_e_energy
energy_TCSCF_2e = TC_HF_two_e_energy
energy_TCSCF_3e = 0.d0
if(three_body_h_tc) then
energy_TCSCF_3e = diag_three_elem_hf
endif
gradie_TCSCF_previous = grad_non_hermit
delta_energy_TCSCF = 1.d0
delta_gradie_TCSCF = 1.d0
iteration_TCSCF = 0
dim_DIIS = 0
max_error_DIIS_TCSCF = 1.d0
! ---
! Start of main SCF loop
PROVIDE FQS_SQF_ao Fock_matrix_tc_ao_tot
do while( (max_error_DIIS_TCSCF > threshold_DIIS_nonzero_TCSCF) .or. &
!(dabs(delta_energy_TCSCF) > thresh_TCSCF) .or. &
(dabs(gradie_TCSCF_previous) > dsqrt(thresh_TCSCF)) )
iteration_TCSCF += 1
if(iteration_TCSCF > n_it_TCSCF_max) then
print *, ' max of TCSCF iterations is reached ', n_it_TCSCF_max
stop
endif
dim_DIIS = min(dim_DIIS+1, max_dim_DIIS_TCSCF)
! ---
if((tcscf_algorithm == 'DIIS') .and. (dabs(delta_energy_TCSCF) > 1.d-6)) then
! store Fock and error matrices at each iteration
index_dim_DIIS = mod(dim_DIIS-1, max_dim_DIIS_TCSCF) + 1
do j = 1, ao_num
do i = 1, ao_num
F_DIIS(i,j,index_dim_DIIS) = Fock_matrix_tc_ao_tot(i,j)
e_DIIS(i,j,index_dim_DIIS) = FQS_SQF_ao(i,j)
enddo
enddo
call extrapolate_TC_Fock_matrix(e_DIIS, F_DIIS, Fock_matrix_tc_ao_tot, size(Fock_matrix_tc_ao_tot, 1), iteration_TCSCF, dim_DIIS)
Fock_matrix_tc_ao_alpha = 0.5d0 * Fock_matrix_tc_ao_tot
Fock_matrix_tc_ao_beta = 0.5d0 * Fock_matrix_tc_ao_tot
!TOUCH Fock_matrix_tc_ao_alpha Fock_matrix_tc_ao_beta
call ao_to_mo_bi_ortho( Fock_matrix_tc_ao_alpha, size(Fock_matrix_tc_ao_alpha, 1) &
, Fock_matrix_tc_mo_alpha, size(Fock_matrix_tc_mo_alpha, 1) )
call ao_to_mo_bi_ortho( Fock_matrix_tc_ao_beta , size(Fock_matrix_tc_ao_beta , 1) &
, Fock_matrix_tc_mo_beta , size(Fock_matrix_tc_mo_beta , 1) )
TOUCH Fock_matrix_tc_mo_alpha Fock_matrix_tc_mo_beta
endif
! ---
mo_l_coef(1:ao_num,1:mo_num) = fock_tc_leigvec_ao(1:ao_num,1:mo_num)
mo_r_coef(1:ao_num,1:mo_num) = fock_tc_reigvec_ao(1:ao_num,1:mo_num)
TOUCH mo_l_coef mo_r_coef
! ---
! calculate error vectors
max_error_DIIS_TCSCF = maxval(abs(FQS_SQF_mo))
! ---
delta_energy_tmp = TC_HF_energy - energy_TCSCF_previous
delta_gradie_tmp = grad_non_hermit - gradie_TCSCF_previous
! ---
do while((delta_gradie_tmp > 1.d-7) .and. (iteration_TCSCF > 1))
!do while((dabs(delta_energy_tmp) > 0.5d0) .and. (iteration_TCSCF > 1))
print *, ' very big or bad step : ', delta_energy_tmp, delta_gradie_tmp
print *, ' TC level shift = ', level_shift_TCSCF
mo_l_coef(1:ao_num,1:mo_num) = mo_l_coef_save(1:ao_num,1:mo_num)
mo_r_coef(1:ao_num,1:mo_num) = mo_r_coef_save(1:ao_num,1:mo_num)
if(level_shift_TCSCF <= .1d0) then
level_shift_TCSCF = 1.d0
else
level_shift_TCSCF = level_shift_TCSCF * 3.0d0
endif
TOUCH mo_l_coef mo_r_coef level_shift_TCSCF
mo_l_coef(1:ao_num,1:mo_num) = fock_tc_leigvec_ao(1:ao_num,1:mo_num)
mo_r_coef(1:ao_num,1:mo_num) = fock_tc_reigvec_ao(1:ao_num,1:mo_num)
TOUCH mo_l_coef mo_r_coef
delta_energy_tmp = TC_HF_energy - energy_TCSCF_previous
delta_gradie_tmp = grad_non_hermit - gradie_TCSCF_previous
if(level_shift_TCSCF - level_shift_save > 40.d0) then
level_shift_TCSCF = level_shift_save * 4.d0
SOFT_TOUCH level_shift_TCSCF
exit
endif
dim_DIIS = 0
enddo
! print *, ' very big step : ', delta_energy_tmp
! print *, ' TC level shift = ', level_shift_TCSCF
! ---
level_shift_TCSCF = 0.d0
!level_shift_TCSCF = level_shift_TCSCF * 0.5d0
SOFT_TOUCH level_shift_TCSCF
gradie_TCSCF = grad_non_hermit
energy_TCSCF = TC_HF_energy
energy_TCSCF_1e = TC_HF_one_e_energy
energy_TCSCF_2e = TC_HF_two_e_energy
energy_TCSCF_3e = 0.d0
if(three_body_h_tc) then
energy_TCSCF_3e = diag_three_elem_hf
endif
delta_energy_TCSCF = energy_TCSCF - energy_TCSCF_previous
delta_gradie_TCSCF = gradie_TCSCF - gradie_TCSCF_previous
energy_TCSCF_previous = energy_TCSCF
gradie_TCSCF_previous = gradie_TCSCF
level_shift_save = level_shift_TCSCF
mo_l_coef_save(1:ao_num,1:mo_num) = mo_l_coef(1:ao_num,1:mo_num)
mo_r_coef_save(1:ao_num,1:mo_num) = mo_r_coef(1:ao_num,1:mo_num)
print *, ' iteration = ', iteration_TCSCF
print *, ' total TC energy = ', energy_TCSCF
print *, ' 1-e TC energy = ', energy_TCSCF_1e
print *, ' 2-e TC energy = ', energy_TCSCF_2e
print *, ' 3-e TC energy = ', energy_TCSCF_3e
print *, ' |delta TC energy| = ', dabs(delta_energy_TCSCF)
print *, ' TC gradient = ', gradie_TCSCF
print *, ' delta TC gradient = ', delta_gradie_TCSCF
print *, ' max TC DIIS error = ', max_error_DIIS_TCSCF
print *, ' TC DIIS dim = ', dim_DIIS
print *, ' TC level shift = ', level_shift_TCSCF
print *, ' '
call ezfio_set_bi_ortho_mos_mo_l_coef(mo_l_coef)
call ezfio_set_bi_ortho_mos_mo_r_coef(mo_r_coef)
if(qp_stop()) exit
enddo
! ---
print *, ' TCSCF DIIS converged !'
call print_energy_and_mos()
call write_time(6)
deallocate(mo_r_coef_save, mo_l_coef_save, F_DIIS, e_DIIS)
end
! ---
subroutine extrapolate_TC_Fock_matrix(e_DIIS, F_DIIS, F_ao, size_F_ao, iteration_TCSCF, dim_DIIS)
BEGIN_DOC
!
! Compute the extrapolated Fock matrix using the DIIS procedure
!
! e = \sum_i c_i e_i and \sum_i c_i = 1
! ==> lagrange multiplier with L = |e|^2 - \lambda (\sum_i c_i = 1)
!
END_DOC
implicit none
integer, intent(in) :: iteration_TCSCF, size_F_ao
integer, intent(inout) :: dim_DIIS
double precision, intent(in) :: F_DIIS(ao_num,ao_num,dim_DIIS)
double precision, intent(in) :: e_DIIS(ao_num,ao_num,dim_DIIS)
double precision, intent(inout) :: F_ao(size_F_ao,ao_num)
double precision, allocatable :: B_matrix_DIIS(:,:), X_vector_DIIS(:), C_vector_DIIS(:)
integer :: i, j, k, l, i_DIIS, j_DIIS
integer :: lwork
double precision :: rcond, ferr, berr
integer, allocatable :: iwork(:)
double precision, allocatable :: scratch(:,:)
if(dim_DIIS < 1) then
return
endif
allocate( B_matrix_DIIS(dim_DIIS+1,dim_DIIS+1), X_vector_DIIS(dim_DIIS+1) &
, C_vector_DIIS(dim_DIIS+1), scratch(ao_num,ao_num) )
! Compute the matrices B and X
B_matrix_DIIS(:,:) = 0.d0
do j = 1, dim_DIIS
j_DIIS = min(dim_DIIS, mod(iteration_TCSCF-j, max_dim_DIIS_TCSCF)+1)
do i = 1, dim_DIIS
i_DIIS = min(dim_DIIS, mod(iteration_TCSCF-i, max_dim_DIIS_TCSCF)+1)
! Compute product of two errors vectors
do l = 1, ao_num
do k = 1, ao_num
B_matrix_DIIS(i,j) = B_matrix_DIIS(i,j) + e_DIIS(k,l,i_DIIS) * e_DIIS(k,l,j_DIIS)
enddo
enddo
enddo
enddo
! Pad B matrix and build the X matrix
C_vector_DIIS(:) = 0.d0
do i = 1, dim_DIIS
B_matrix_DIIS(i,dim_DIIS+1) = -1.d0
B_matrix_DIIS(dim_DIIS+1,i) = -1.d0
enddo
C_vector_DIIS(dim_DIIS+1) = -1.d0
deallocate(scratch)
! Estimate condition number of B
integer :: info
double precision :: anorm
integer, allocatable :: ipiv(:)
double precision, allocatable :: AF(:,:)
double precision, external :: dlange
lwork = max((dim_DIIS+1)**2, (dim_DIIS+1)*5)
allocate(AF(dim_DIIS+1,dim_DIIS+1))
allocate(ipiv(2*(dim_DIIS+1)), iwork(2*(dim_DIIS+1)) )
allocate(scratch(lwork,1))
scratch(:,1) = 0.d0
anorm = dlange('1', dim_DIIS+1, dim_DIIS+1, B_matrix_DIIS, size(B_matrix_DIIS, 1), scratch(1,1))
AF(:,:) = B_matrix_DIIS(:,:)
call dgetrf(dim_DIIS+1, dim_DIIS+1, AF, size(AF, 1), ipiv, info)
if(info /= 0) then
dim_DIIS = 0
return
endif
call dgecon('1', dim_DIIS+1, AF, size(AF, 1), anorm, rcond, scratch, iwork, info)
if(info /= 0) then
dim_DIIS = 0
return
endif
if(rcond < 1.d-14) then
dim_DIIS = 0
return
endif
! solve the linear system C = B x X
X_vector_DIIS = C_vector_DIIS
call dgesv(dim_DIIS+1, 1, B_matrix_DIIS, size(B_matrix_DIIS, 1), ipiv , X_vector_DIIS, size(X_vector_DIIS, 1), info)
deallocate(scratch, AF, iwork)
if(info < 0) then
stop ' bug in TC-DIIS'
endif
! Compute extrapolated Fock matrix
!$OMP PARALLEL DO PRIVATE(i,j,k) DEFAULT(SHARED) if (ao_num > 200)
do j = 1, ao_num
do i = 1, ao_num
F_ao(i,j) = 0.d0
enddo
do k = 1, dim_DIIS
if(dabs(X_vector_DIIS(k)) < 1.d-10) cycle
do i = 1,ao_num
! FPE here
F_ao(i,j) = F_ao(i,j) + X_vector_DIIS(k) * F_DIIS(i,j,dim_DIIS-k+1)
enddo
enddo
enddo
!$OMP END PARALLEL DO
end
! ---

1
src/tc_scf/tc_scf.irp.f
View File

@ -73,4 +73,3 @@ subroutine create_guess()
end subroutine create_guess end subroutine create_guess
! --- ! ---

2
src/tc_scf/tc_scf_dm.irp.f
View File

@ -10,7 +10,6 @@ BEGIN_PROVIDER [ double precision, TCSCF_density_matrix_ao_beta, (ao_num, ao_num
else else
TCSCF_density_matrix_ao_beta = SCF_density_matrix_ao_beta TCSCF_density_matrix_ao_beta = SCF_density_matrix_ao_beta
endif endif
END_PROVIDER END_PROVIDER
! --- ! ---
@ -25,7 +24,6 @@ BEGIN_PROVIDER [ double precision, TCSCF_density_matrix_ao_alpha, (ao_num, ao_nu
else else
TCSCF_density_matrix_ao_alpha = SCF_density_matrix_ao_alpha TCSCF_density_matrix_ao_alpha = SCF_density_matrix_ao_alpha
endif endif
END_PROVIDER END_PROVIDER

7
src/tc_scf/test_int.irp.f
View File

@ -62,12 +62,6 @@ subroutine test_tc_scf
integer :: i integer :: i
! provide int2_u_grad1u_x_j1b2_test ! provide int2_u_grad1u_x_j1b2_test
provide x_v_ij_erf_rk_cst_mu_j1b_test provide x_v_ij_erf_rk_cst_mu_j1b_test
! do i = 1, ng_fit_jast
! print*,expo_gauss_1_erf_x_2(i),coef_gauss_1_erf_x_2(i)
! enddo
! provide tc_grad_square_ao_test
! provide tc_grad_and_lapl_ao_test
! provide int2_u_grad1u_x_j1b2_test
! provide x_v_ij_erf_rk_cst_mu_j1b_test ! provide x_v_ij_erf_rk_cst_mu_j1b_test
! print*,'TC_HF_energy = ',TC_HF_energy ! print*,'TC_HF_energy = ',TC_HF_energy
! print*,'grad_non_hermit = ',grad_non_hermit ! print*,'grad_non_hermit = ',grad_non_hermit
@ -1006,3 +1000,4 @@ end
! --- ! ---
>>>>>>> 92a4e33f8a21717cab0c0e4f8412ed6903afb04a

90
src/tools/print_hmat.irp.f Normal file
View File

@ -0,0 +1,90 @@
program print_h_mat
implicit none
BEGIN_DOC
! program that prints out the CI matrix in sparse form
END_DOC
read_wf = .True.
touch read_wf
call print_wf_dets
call print_wf_coef
call sparse_mat
call full_mat
call test_sparse_mat
end
subroutine print_wf_dets
implicit none
integer :: i,j
character*(128) :: output
integer :: i_unit_output,getUnitAndOpen
output=trim(ezfio_filename)//'.wf_det'
i_unit_output = getUnitAndOpen(output,'w')
write(i_unit_output,*)N_det,N_int
do i = 1, N_det
write(i_unit_output,*)psi_det_sorted(1:N_int,1,i)
write(i_unit_output,*)psi_det_sorted(1:N_int,2,i)
enddo
end
subroutine print_wf_coef
implicit none
integer :: i,j
character*(128) :: output
integer :: i_unit_output,getUnitAndOpen
output=trim(ezfio_filename)//'.wf_coef'
i_unit_output = getUnitAndOpen(output,'w')
write(i_unit_output,*)N_det,N_states
do i = 1, N_det
write(i_unit_output,*)psi_coef_sorted(i,1:N_states)
enddo
end
subroutine sparse_mat
implicit none
integer :: i,j
character*(128) :: output
integer :: i_unit_output,getUnitAndOpen
output=trim(ezfio_filename)//'.hmat_sparse'
i_unit_output = getUnitAndOpen(output,'w')
do i = 1, N_det
write(i_unit_output,*)i,n_connected_per_det(i)
do j =1, n_connected_per_det(i)
write(i_unit_output,*)list_connected_det_per_det(j,i),sparse_h_mat(j,i)
enddo
enddo
end
subroutine full_mat
implicit none
integer :: i,j
character*(128) :: output
integer :: i_unit_output,getUnitAndOpen
output=trim(ezfio_filename)//'.hmat_full'
i_unit_output = getUnitAndOpen(output,'w')
do i = 1, N_det
do j = i, N_det
write(i_unit_output,*)i,j,H_matrix_all_dets(j,i)
enddo
enddo
end
subroutine test_sparse_mat
implicit none
integer :: i,j
double precision, allocatable :: eigvec(:,:), eigval(:), hmat(:,:)
allocate(eigval(N_det), eigvec(N_det,N_det),hmat(N_det,N_det))
hmat = 0.d0
do i = 1, N_det
do j =1, n_connected_per_det(i)
hmat(list_connected_det_per_det(j,i),i) = sparse_h_mat(j,i)
enddo
enddo
call lapack_diag(eigval,eigvec,hmat,N_det,N_det)
print*,'The two energies should be the same '
print*,'eigval(1) = ',eigval(1)
print*,'psi_energy= ',CI_electronic_energy(1)
end

151
src/utils/integration.irp.f
View File

@ -48,7 +48,7 @@ end
! TODO remove dim ! TODO remove dim
subroutine give_explicit_poly_and_gaussian(P_new,P_center,p,fact_k,iorder,alpha,beta,a,b,A_center,B_center,dim) subroutine give_explicit_poly_and_gaussian(P_new, P_center, p, fact_k, iorder, alpha, beta, a, b, A_center, B_center, dim)
BEGIN_DOC BEGIN_DOC
! Transforms the product of ! Transforms the product of
@ -65,19 +65,19 @@ subroutine give_explicit_poly_and_gaussian(P_new,P_center,p,fact_k,iorder,alpha,
implicit none implicit none
include 'constants.include.F' include 'constants.include.F'
integer, intent(in) :: dim integer, intent(in) :: dim
integer, intent(in) :: a(3),b(3) ! powers : (x-xa)**a_x = (x-A(1))**a(1) integer, intent(in) :: a(3), b(3) ! powers : (x-xa)**a_x = (x-A(1))**a(1)
double precision, intent(in) :: alpha, beta ! exponents double precision, intent(in) :: alpha, beta ! exponents
double precision, intent(in) :: A_center(3) ! A center double precision, intent(in) :: A_center(3) ! A center
double precision, intent(in) :: B_center (3) ! B center double precision, intent(in) :: B_center (3) ! B center
double precision, intent(out) :: P_center(3) ! new center integer, intent(out) :: iorder(3) ! i_order(i) = order of the polynomials
double precision, intent(out) :: p ! new exponent double precision, intent(out) :: P_center(3) ! new center
double precision, intent(out) :: fact_k ! constant factor double precision, intent(out) :: p ! new exponent
double precision, intent(out) :: P_new(0:max_dim,3)! polynomial double precision, intent(out) :: fact_k ! constant factor
integer, intent(out) :: iorder(3) ! i_order(i) = order of the polynomials double precision, intent(out) :: P_new(0:max_dim,3)! polynomial
double precision :: P_a(0:max_dim,3), P_b(0:max_dim,3) integer :: n_new, i, j
integer :: n_new,i,j double precision :: P_a(0:max_dim,3), P_b(0:max_dim,3)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: P_a, P_b !DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: P_a, P_b
iorder(1) = 0 iorder(1) = 0
@ -87,46 +87,46 @@ subroutine give_explicit_poly_and_gaussian(P_new,P_center,p,fact_k,iorder,alpha,
P_new(0,2) = 0.d0 P_new(0,2) = 0.d0
P_new(0,3) = 0.d0 P_new(0,3) = 0.d0
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call gaussian_product(alpha,A_center,beta,B_center,fact_k,p,P_center) call gaussian_product(alpha, A_center, beta, B_center, fact_k, p, P_center)
if (fact_k < thresh) then if(fact_k < thresh) then
! IF fact_k is too smal then: ! IF fact_k is too smal then:
! returns a "s" function centered in zero ! returns a "s" function centered in zero
! with an inifinite exponent and a zero polynom coef ! with an inifinite exponent and a zero polynom coef
P_center = 0.d0 P_center = 0.d0
p = 1.d+15 p = 1.d+15
fact_k = 0.d0 fact_k = 0.d0
return return
endif endif
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call recentered_poly2(P_a(0,1),A_center(1),P_center(1),a(1),P_b(0,1),B_center(1),P_center(1),b(1)) call recentered_poly2(P_a(0,1), A_center(1), P_center(1), a(1), P_b(0,1), B_center(1), P_center(1), b(1))
iorder(1) = a(1) + b(1) iorder(1) = a(1) + b(1)
do i=0,iorder(1) do i = 0, iorder(1)
P_new(i,1) = 0.d0 P_new(i,1) = 0.d0
enddo enddo
n_new=0 n_new = 0
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call multiply_poly(P_a(0,1),a(1),P_b(0,1),b(1),P_new(0,1),n_new) call multiply_poly(P_a(0,1), a(1), P_b(0,1), b(1), P_new(0,1), n_new)
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call recentered_poly2(P_a(0,2),A_center(2),P_center(2),a(2),P_b(0,2),B_center(2),P_center(2),b(2)) call recentered_poly2(P_a(0,2), A_center(2), P_center(2), a(2), P_b(0,2), B_center(2), P_center(2), b(2))
iorder(2) = a(2) + b(2) iorder(2) = a(2) + b(2)
do i=0,iorder(2) do i = 0, iorder(2)
P_new(i,2) = 0.d0 P_new(i,2) = 0.d0
enddo enddo
n_new=0 n_new = 0
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call multiply_poly(P_a(0,2),a(2),P_b(0,2),b(2),P_new(0,2),n_new) call multiply_poly(P_a(0,2), a(2), P_b(0,2), b(2), P_new(0,2), n_new)
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call recentered_poly2(P_a(0,3),A_center(3),P_center(3),a(3),P_b(0,3),B_center(3),P_center(3),b(3)) call recentered_poly2(P_a(0,3), A_center(3), P_center(3), a(3), P_b(0,3), B_center(3), P_center(3), b(3))
iorder(3) = a(3) + b(3) iorder(3) = a(3) + b(3)
do i=0,iorder(3) do i = 0, iorder(3)
P_new(i,3) = 0.d0 P_new(i,3) = 0.d0
enddo enddo
n_new=0 n_new = 0
!DIR$ FORCEINLINE !DIR$ FORCEINLINE
call multiply_poly(P_a(0,3),a(3),P_b(0,3),b(3),P_new(0,3),n_new) call multiply_poly(P_a(0,3), a(3), P_b(0,3), b(3), P_new(0,3), n_new)
end end
@ -167,26 +167,33 @@ subroutine give_explicit_poly_and_gaussian_v(P_new, ldp, P_center, p, fact_k, io
call gaussian_product_v(alpha, A_center, LD_A, beta, B_center, fact_k, p, P_center, n_points) call gaussian_product_v(alpha, A_center, LD_A, beta, B_center, fact_k, p, P_center, n_points)
if ( ior(ior(b(1),b(2)),b(3)) == 0 ) then ! b == (0,0,0) if(ior(ior(b(1), b(2)), b(3)) == 0) then ! b == (0,0,0)
lda = maxval(a)
ldb = 0
allocate(P_a(n_points,0:lda,3), P_b(n_points,0:0,3))
call recentered_poly2_v0(P_a, lda, A_center, LD_A, P_center, a, P_b, B_center, P_center, n_points)
iorder(1:3) = a(1:3) iorder(1:3) = a(1:3)
lda = maxval(a)
allocate(P_a(n_points,0:lda,3))
!ldb = 0
!allocate(P_b(n_points,0:0,3))
!call recentered_poly2_v0(P_a, lda, A_center, LD_A, P_center, a, P_b, B_center, P_center, n_points)
call recentered_poly2_v0(P_a, lda, A_center, LD_A, P_center, a, n_points)
do ipoint = 1, n_points do ipoint = 1, n_points
do xyz = 1, 3 do xyz = 1, 3
P_new(ipoint,0,xyz) = P_a(ipoint,0,xyz) * P_b(ipoint,0,xyz) !P_new(ipoint,0,xyz) = P_a(ipoint,0,xyz) * P_b(ipoint,0,xyz)
P_new(ipoint,0,xyz) = P_a(ipoint,0,xyz)
do i = 1, a(xyz) do i = 1, a(xyz)
P_new(ipoint,i,xyz) = P_new(ipoint,i,xyz) + P_b(ipoint,0,xyz) * P_a(ipoint,i,xyz) !P_new(ipoint,i,xyz) = P_new(ipoint,i,xyz) + P_b(ipoint,0,xyz) * P_a(ipoint,i,xyz)
P_new(ipoint,i,xyz) = P_a(ipoint,i,xyz)
enddo enddo
enddo enddo
enddo enddo
return deallocate(P_a)
!deallocate(P_b)
return
endif endif
lda = maxval(a) lda = maxval(a)
@ -198,20 +205,27 @@ subroutine give_explicit_poly_and_gaussian_v(P_new, ldp, P_center, p, fact_k, io
iorder(1:3) = a(1:3) + b(1:3) iorder(1:3) = a(1:3) + b(1:3)
do xyz = 1, 3 do xyz = 1, 3
if (b(xyz) == 0) then if(b(xyz) == 0) then
do ipoint = 1, n_points do ipoint = 1, n_points
P_new(ipoint,0,xyz) = P_a(ipoint,0,xyz) * P_b(ipoint,0,xyz) !P_new(ipoint,0,xyz) = P_a(ipoint,0,xyz) * P_b(ipoint,0,xyz)
P_new(ipoint,0,xyz) = P_a(ipoint,0,xyz)
do i = 1, a(xyz) do i = 1, a(xyz)
P_new(ipoint,i,xyz) = P_new(ipoint,i,xyz) + P_b(ipoint,0,xyz) * P_a(ipoint,i,xyz) !P_new(ipoint,i,xyz) = P_new(ipoint,i,xyz) + P_b(ipoint,0,xyz) * P_a(ipoint,i,xyz)
P_new(ipoint,i,xyz) = P_a(ipoint,i,xyz)
enddo enddo
enddo enddo
else else
do i = 0, iorder(xyz) do i = 0, iorder(xyz)
do ipoint = 1, n_points do ipoint = 1, n_points
P_new(ipoint,i,xyz) = 0.d0 P_new(ipoint,i,xyz) = 0.d0
enddo enddo
enddo enddo
call multiply_poly_v(P_a(1,0,xyz), a(xyz), P_b(1,0,xyz), b(xyz), P_new(1,0,xyz), ldp, n_points) call multiply_poly_v(P_a(1,0,xyz), a(xyz), P_b(1,0,xyz), b(xyz), P_new(1,0,xyz), ldp, n_points)
endif endif
enddo enddo
@ -720,45 +734,57 @@ end subroutine recentered_poly2_v
! --- ! ---
subroutine recentered_poly2_v0(P_new, lda, x_A, LD_xA, x_P, a, P_new2, x_B, x_Q, n_points) !subroutine recentered_poly2_v0(P_new, lda, x_A, LD_xA, x_P, a, P_new2, x_B, x_Q, n_points)
subroutine recentered_poly2_v0(P_new, lda, x_A, LD_xA, x_P, a, n_points)
BEGIN_DOC BEGIN_DOC
!
! Recenter two polynomials. Special case for b=(0,0,0) ! Recenter two polynomials. Special case for b=(0,0,0)
!
! (x - A)^a (x - B)^0 = (x - P + P - A)^a (x - Q + Q - B)^0
! = (x - P + P - A)^a
!
END_DOC END_DOC
implicit none implicit none
integer, intent(in) :: a(3), n_points, lda, LD_xA integer, intent(in) :: a(3), n_points, lda, LD_xA
double precision, intent(in) :: x_A(LD_xA,3) double precision, intent(in) :: x_A(LD_xA,3), x_P(n_points,3)
double precision, intent(in) :: x_B(3) !double precision, intent(in) :: x_B(3), x_Q(n_points,3)
double precision, intent(in) :: x_P(n_points,3), x_Q(n_points,3) double precision, intent(out) :: P_new(n_points,0:lda,3)
double precision, intent(out) :: P_new(n_points,0:lda,3), P_new2(n_points,3) !double precision, intent(out) :: P_new2(n_points,3)
integer :: i, j, k, l, xyz, ipoint, maxab(3) integer :: i, j, k, l, xyz, ipoint, maxab(3)
double precision :: fa double precision :: fa
double precision, allocatable :: pows_a(:,:), pows_b(:,:) double precision, allocatable :: pows_a(:,:)
!double precision, allocatable :: pows_b(:,:)
double precision :: binom_func double precision :: binom_func
maxab(1:3) = max(a(1:3),(/0,0,0/)) maxab(1:3) = max(a(1:3), (/0,0,0/))
allocate( pows_a(n_points,-2:maxval(maxab)+4), pows_b(n_points,-2:maxval(maxab)+4) ) allocate(pows_a(n_points,-2:maxval(maxab)+4))
!allocate(pows_b(n_points,-2:maxval(maxab)+4))
do xyz = 1, 3 do xyz = 1, 3
if (a(xyz)<0) cycle if(a(xyz) < 0) cycle
do ipoint=1,n_points
do ipoint = 1, n_points
pows_a(ipoint,0) = 1.d0 pows_a(ipoint,0) = 1.d0
pows_a(ipoint,1) = (x_P(ipoint,xyz) - x_A(ipoint,xyz)) pows_a(ipoint,1) = (x_P(ipoint,xyz) - x_A(ipoint,xyz))
pows_b(ipoint,0) = 1.d0 !pows_b(ipoint,0) = 1.d0
pows_b(ipoint,1) = (x_Q(ipoint,xyz) - x_B(xyz)) !pows_b(ipoint,1) = (x_Q(ipoint,xyz) - x_B(xyz))
enddo enddo
do i = 2,maxab(xyz)
do ipoint=1,n_points do i = 2, maxab(xyz)
pows_a(ipoint,i) = pows_a(ipoint,i-1)*pows_a(ipoint,1) do ipoint = 1, n_points
pows_b(ipoint,i) = pows_b(ipoint,i-1)*pows_b(ipoint,1) pows_a(ipoint,i) = pows_a(ipoint,i-1) * pows_a(ipoint,1)
!pows_b(ipoint,i) = pows_b(ipoint,i-1) * pows_b(ipoint,1)
enddo enddo
enddo enddo
do ipoint=1,n_points
do ipoint = 1, n_points
P_new (ipoint,0,xyz) = pows_a(ipoint,a(xyz)) P_new (ipoint,0,xyz) = pows_a(ipoint,a(xyz))
P_new2(ipoint,xyz) = pows_b(ipoint,0) !P_new2(ipoint,xyz) = pows_b(ipoint,0)
enddo enddo
do i = 1, min(a(xyz), 20) do i = 1, min(a(xyz), 20)
fa = binom_transp(a(xyz)-i, a(xyz)) fa = binom_transp(a(xyz)-i, a(xyz))
@ -775,11 +801,12 @@ subroutine recentered_poly2_v0(P_new, lda, x_A, LD_xA, x_P, a, P_new2, x_B, x_Q,
enddo !xyz enddo !xyz
deallocate(pows_a, pows_b) deallocate(pows_a)
!deallocate(pows_b)
end subroutine recentered_poly2_v0 end subroutine recentered_poly2_v0
!-- ! ---
subroutine pol_modif_center(A_center, B_center, iorder, A_pol, B_pol) subroutine pol_modif_center(A_center, B_center, iorder, A_pol, B_pol)

1
src/utils/linear_algebra.irp.f
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@ -1735,6 +1735,7 @@ subroutine restore_symmetry(m,n,A,LDA,thresh)
! enddo ! enddo
! Symmetrize ! Symmetrize
i = 1
do while( (i < sze).and.(-copy(i) > thresh) ) do while( (i < sze).and.(-copy(i) > thresh) )
pi = i pi = i
pf = i pf = i

42
src/utils/one_e_integration.irp.f
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@ -31,7 +31,10 @@ double precision function overlap_gaussian_x(A_center,B_center,alpha,beta,power_
overlap_gaussian_x*= fact_p overlap_gaussian_x*= fact_p
end end
! ---
! TODO
! gaussian_product is called twice: in give_explicit_poly_and_gaussian and here
subroutine overlap_gaussian_xyz(A_center, B_center, alpha, beta, power_A, power_B, overlap_x, overlap_y, overlap_z, overlap, dim) subroutine overlap_gaussian_xyz(A_center, B_center, alpha, beta, power_A, power_B, overlap_x, overlap_y, overlap_z, overlap, dim)
BEGIN_DOC BEGIN_DOC
@ -45,51 +48,50 @@ subroutine overlap_gaussian_xyz(A_center, B_center, alpha, beta, power_A, power_
include 'constants.include.F' include 'constants.include.F'
implicit none implicit none
integer,intent(in) :: dim ! dimension maximum for the arrays representing the polynomials integer, intent(in) :: dim ! dimension maximum for the arrays representing the polynomials
double precision,intent(in) :: A_center(3),B_center(3) ! center of the x1 functions integer, intent(in) :: power_A(3), power_B(3) ! power of the x1 functions
double precision, intent(in) :: alpha,beta double precision, intent(in) :: A_center(3), B_center(3) ! center of the x1 functions
integer,intent(in) :: power_A(3), power_B(3) ! power of the x1 functions double precision, intent(in) :: alpha, beta
double precision, intent(out) :: overlap_x,overlap_y,overlap_z,overlap double precision, intent(out) :: overlap_x, overlap_y, overlap_z, overlap
double precision :: P_new(0:max_dim,3),P_center(3),fact_p,p integer :: i, nmax, iorder_p(3)
double precision :: F_integral_tab(0:max_dim) double precision :: P_new(0:max_dim,3), P_center(3), fact_p, p
integer :: iorder_p(3) double precision :: F_integral_tab(0:max_dim)
integer :: nmax
double precision :: F_integral double precision :: F_integral
call give_explicit_poly_and_gaussian(P_new, P_center, p, fact_p, iorder_p, alpha, beta, power_A, power_B, A_center, B_center, dim) call give_explicit_poly_and_gaussian(P_new, P_center, p, fact_p, iorder_p, alpha, beta, power_A, power_B, A_center, B_center, dim)
if(fact_p.lt.1d-20)then if(fact_p .lt. 1d-20) then
overlap_x = 1.d-10 overlap_x = 1.d-10
overlap_y = 1.d-10 overlap_y = 1.d-10
overlap_z = 1.d-10 overlap_z = 1.d-10
overlap = 1.d-10 overlap = 1.d-10
return return
endif endif
nmax = maxval(iorder_p) nmax = maxval(iorder_p)
do i = 0,nmax do i = 0, nmax
F_integral_tab(i) = F_integral(i,p) F_integral_tab(i) = F_integral(i, p)
enddo enddo
overlap_x = P_new(0,1) * F_integral_tab(0) overlap_x = P_new(0,1) * F_integral_tab(0)
overlap_y = P_new(0,2) * F_integral_tab(0) overlap_y = P_new(0,2) * F_integral_tab(0)
overlap_z = P_new(0,3) * F_integral_tab(0) overlap_z = P_new(0,3) * F_integral_tab(0)
integer :: i
do i = 1,iorder_p(1) do i = 1,iorder_p(1)
overlap_x = overlap_x + P_new(i,1) * F_integral_tab(i) overlap_x = overlap_x + P_new(i,1) * F_integral_tab(i)
enddo enddo
call gaussian_product_x(alpha,A_center(1),beta,B_center(1),fact_p,p,P_center(1)) call gaussian_product_x(alpha, A_center(1), beta, B_center(1), fact_p, p, P_center(1))
overlap_x *= fact_p overlap_x *= fact_p
do i = 1,iorder_p(2) do i = 1, iorder_p(2)
overlap_y = overlap_y + P_new(i,2) * F_integral_tab(i) overlap_y = overlap_y + P_new(i,2) * F_integral_tab(i)
enddo enddo
call gaussian_product_x(alpha,A_center(2),beta,B_center(2),fact_p,p,P_center(2)) call gaussian_product_x(alpha, A_center(2), beta, B_center(2), fact_p, p, P_center(2))
overlap_y *= fact_p overlap_y *= fact_p
do i = 1,iorder_p(3) do i = 1,iorder_p(3)
overlap_z = overlap_z + P_new(i,3) * F_integral_tab(i) overlap_z = overlap_z + P_new(i,3) * F_integral_tab(i)
enddo enddo
call gaussian_product_x(alpha,A_center(3),beta,B_center(3),fact_p,p,P_center(3)) call gaussian_product_x(alpha, A_center(3), beta, B_center(3), fact_p, p, P_center(3))
overlap_z *= fact_p overlap_z *= fact_p
overlap = overlap_x * overlap_y * overlap_z overlap = overlap_x * overlap_y * overlap_z
@ -183,7 +185,7 @@ subroutine overlap_gaussian_xyz_v(A_center, B_center, alpha, beta, power_A, powe
double precision :: F_integral double precision :: F_integral
double precision, allocatable :: P_new(:,:,:), P_center(:,:), fact_p(:) double precision, allocatable :: P_new(:,:,:), P_center(:,:), fact_p(:)
ldp = maxval( power_A(1:3) + power_B(1:3) ) ldp = maxval(power_A(1:3) + power_B(1:3))
allocate(P_new(n_points,0:ldp,3), P_center(n_points,3), fact_p(n_points)) allocate(P_new(n_points,0:ldp,3), P_center(n_points,3), fact_p(n_points))