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Anthony Scemama 2015-12-20 00:54:56 +01:00
parent 9580050b80
commit 99e4ad9e12
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170
src/JASTROW/jastrow_core.irp.f Normal file
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! Core Jastrow
! --------------
BEGIN_PROVIDER [ double precision, jast_elec_Core_expo, (nucl_num) ]
&BEGIN_PROVIDER [ double precision, jast_elec_Core_range, (nucl_num) ]
implicit none
BEGIN_DOC
! Exponent of the core jastrow factor per nucleus
END_DOC
integer :: i
do i=1,nucl_num
if (nucl_charge(i) < 2.5d0) then
jast_elec_Core_expo(i) = 0.d0
jast_elec_Core_range(i) = 0.d0
else
double precision :: rc
double precision, parameter :: thresh = 0.5 ! function = thresh at rc
rc = min(0.8d0,max(4.0d0/nucl_charge(i), 0.25d0))
jast_elec_Core_expo(i) = -1.d0/rc**2 * log(thresh)
jast_elec_Core_range(i) = dsqrt(15.d0/jast_elec_Core_expo(i))
endif
call dinfo(irp_here, 'expo', jast_elec_Core_expo(i))
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision , jast_elec_Core_value, (elec_num_8) ]
implicit none
BEGIN_DOC
! J(i) = \sum_j a.rij/(1+b^2.rij) - \sum_A (a.riA/(1+a.riA))^2
END_DOC
integer :: i,j,k
double precision :: a, b, rij, tmp, a2
double precision :: f1
jast_elec_Core_value = 0.d0
do k=1,nucl_num
if (jast_elec_Core_range(k) == 0.d0) then
cycle
endif
a = 0.5d0
a2 = jast_core_a1(k)
b = jast_core_b1(k)
do j=1,elec_alpha_num
if (nucl_elec_dist(k,j) > jast_elec_Core_range(k)) then
cycle
endif
do i=elec_alpha_num+1,elec_num
if (nucl_elec_dist(k,i) > jast_elec_Core_range(k)) then
cycle
endif
rij = elec_dist(i,j)
f1 = exp(-jast_elec_Core_expo(k)*(nucl_elec_dist(k,i)*nucl_elec_dist(k,i)+nucl_elec_dist(k,j)*nucl_elec_dist(k,j)))
tmp = f1*(a*rij/(1.d0+b*rij) - a2)
jast_elec_Core_value(i) = jast_elec_Core_value(i) + 0.5d0*tmp
jast_elec_Core_value(j) = jast_elec_Core_value(j) + 0.5d0*tmp
enddo
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision , jast_elec_Core_grad_x, (elec_num_8) ]
&BEGIN_PROVIDER [ double precision , jast_elec_Core_grad_y, (elec_num_8) ]
&BEGIN_PROVIDER [ double precision , jast_elec_Core_grad_z, (elec_num_8) ]
implicit none
BEGIN_DOC
! Gradient of the Jastrow factor
END_DOC
integer :: i,j,k
double precision :: a, b, rij, tmp, x, y, z, f1, a2
jast_elec_Core_grad_x = 0.d0
jast_elec_Core_grad_y = 0.d0
jast_elec_Core_grad_z = 0.d0
do k=1,nucl_num
if (jast_elec_Core_range(k) == 0.d0) then
cycle
endif
a = 0.5d0
a2 = jast_core_a1(k)
b = jast_core_b1(k)
do j=1,elec_alpha_num
if (nucl_elec_dist(k,j) > jast_elec_Core_range(k)) then
cycle
endif
do i=elec_alpha_num+1,elec_num
if (nucl_elec_dist(k,i) > jast_elec_Core_range(k)) then
cycle
endif
rij = elec_dist(i,j)
f1 = exp(-jast_elec_Core_expo(k)*(nucl_elec_dist(k,i)*nucl_elec_dist(k,i)+nucl_elec_dist(k,j)*nucl_elec_dist(k,j)))
tmp = f1*(a/(rij*(1.d0+b*rij*(2.d0+b*rij))))
f1 = -2.d0*jast_elec_Core_expo(k)* f1* (a*rij/(1.d0+b*rij) -a2)
jast_elec_Core_grad_x(i) += elec_dist_vec_x(i,j)*tmp + nucl_elec_dist_vec(1,k,i)*f1
jast_elec_Core_grad_y(i) += elec_dist_vec_y(i,j)*tmp + nucl_elec_dist_vec(2,k,i)*f1
jast_elec_Core_grad_z(i) += elec_dist_vec_z(i,j)*tmp + nucl_elec_dist_vec(3,k,i)*f1
jast_elec_Core_grad_x(j) += -elec_dist_vec_x(i,j)*tmp + nucl_elec_dist_vec(1,k,j)*f1
jast_elec_Core_grad_y(j) += -elec_dist_vec_y(i,j)*tmp + nucl_elec_dist_vec(2,k,j)*f1
jast_elec_Core_grad_z(j) += -elec_dist_vec_z(i,j)*tmp + nucl_elec_dist_vec(3,k,j)*f1
enddo
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision , jast_elec_Core_lapl, (elec_num_8) ]
implicit none
BEGIN_DOC
! Laplacian of the Jastrow factor
END_DOC
integer :: i,j,k
double precision :: a, b, rij, tmp, x, y, z,f1, alpha, a2
jast_elec_Core_lapl = 0.d0
do k=1,nucl_num
if (jast_elec_Core_range(k) == 0.d0) then
cycle
endif
a = 0.5d0
a2 = jast_core_a1(k)
b = jast_core_b1(k)
do j=1,elec_alpha_num
if (nucl_elec_dist(k,j) > jast_elec_Core_range(k)) then
cycle
endif
do i=elec_alpha_num+1,elec_num
if (nucl_elec_dist(k,i) > jast_elec_Core_range(k)) then
cycle
endif
f1 = exp(-jast_elec_Core_expo(k)*(nucl_elec_dist(k,i)*nucl_elec_dist(k,i)+nucl_elec_dist(k,j)*nucl_elec_dist(k,j)))
rij = b*elec_dist(i,j)
tmp = (a+a)/(elec_dist(i,j)*(1.d0+rij*(3.d0+rij*(3.d0+rij))))
jast_elec_Core_lapl(i) += tmp*f1
jast_elec_Core_lapl(j) += tmp*f1
rij = elec_dist(i,j)
tmp = f1* ( a*rij/(1.d0+b*rij) -a2 )
jast_elec_Core_lapl(i) += tmp*( 4.d0*(nucl_elec_dist(k,i)*jast_elec_Core_expo(k))**2-6.d0*jast_elec_Core_expo(k))
jast_elec_Core_lapl(j) += tmp*( 4.d0*(nucl_elec_dist(k,j)*jast_elec_Core_expo(k))**2-6.d0*jast_elec_Core_expo(k))
tmp = 4.d0*jast_elec_Core_expo(k)*f1*(a/(rij*(1.d0+b*rij*(2.d0+b*rij))) )
jast_elec_Core_lapl(i) -= tmp*(nucl_elec_dist_vec(1,k,i)*elec_dist_vec_x(i,j) &
+ nucl_elec_dist_vec(2,k,i)*elec_dist_vec_y(i,j) &
+ nucl_elec_dist_vec(3,k,i)*elec_dist_vec_z(i,j))
jast_elec_Core_lapl(j) += tmp*(nucl_elec_dist_vec(1,k,j)*elec_dist_vec_x(i,j) &
+ nucl_elec_dist_vec(2,k,j)*elec_dist_vec_y(i,j) &
+ nucl_elec_dist_vec(3,k,j)*elec_dist_vec_z(i,j))
enddo
enddo
enddo
END_PROVIDER

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src/JASTROW/jastrow_full.irp.f Normal file
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BEGIN_PROVIDER [ double precision, jast_value ]
&BEGIN_PROVIDER [ double precision, jast_value_inv ]
implicit none
include '../types.F'
BEGIN_DOC
! Value of the Jastrow factor
END_DOC
integer, save :: ifirst = 0
integer :: i
double precision :: dshift = 0.d0
jast_value = 1.d0
if (do_jast) then
double precision :: argexpo
BEGIN_TEMPLATE
if (jast_type == t_$X) then
argexpo = 0.d0
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
argexpo += jast_elec_$X_value(i)
enddo
! argexpo = argexpo/dble(elec_num)
endif
SUBST [X]
Simple ;;
Core ;;
END_TEMPLATE
if (ifirst == 0) then
dshift = argexpo
ifirst = 1
endif
argexpo -= dshift
jast_value = exp(argexpo)
endif
ASSERT (jast_value > 0.d0)
jast_value_inv = 1.d0/jast_value
END_PROVIDER
BEGIN_PROVIDER [ double precision, jast_grad_jast_inv_x, (elec_num) ]
&BEGIN_PROVIDER [ double precision, jast_grad_jast_inv_y, (elec_num) ]
&BEGIN_PROVIDER [ double precision, jast_grad_jast_inv_z, (elec_num) ]
&BEGIN_PROVIDER [ double precision, jast_grad_x, (elec_num) ]
&BEGIN_PROVIDER [ double precision, jast_grad_y, (elec_num) ]
&BEGIN_PROVIDER [ double precision, jast_grad_z, (elec_num) ]
implicit none
include '../types.F'
BEGIN_DOC
! Grad(J)/J
END_DOC
integer :: i,l
integer, save :: ifirst = 0
if (ifirst == 0) then
ifirst = 1
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
jast_grad_jast_inv_x(i) = 0.d0
jast_grad_jast_inv_y(i) = 0.d0
jast_grad_jast_inv_z(i) = 0.d0
jast_grad_x(i) = 0.d0
jast_grad_y(i) = 0.d0
jast_grad_z(i) = 0.d0
enddo
endif
if (do_jast) then
BEGIN_TEMPLATE
if ( jast_type == t_$X ) then
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
jast_grad_jast_inv_x(i) = jast_elec_$X_grad_x(i)
jast_grad_jast_inv_y(i) = jast_elec_$X_grad_y(i)
jast_grad_jast_inv_z(i) = jast_elec_$X_grad_z(i)
enddo
endif
SUBST [ X ]
Simple ;;
Core ;;
END_TEMPLATE
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
jast_grad_x(i) = jast_grad_jast_inv_x(i)*jast_value
jast_grad_y(i) = jast_grad_jast_inv_y(i)*jast_value
jast_grad_z(i) = jast_grad_jast_inv_z(i)*jast_value
enddo
endif
END_PROVIDER
BEGIN_PROVIDER [ double precision, jast_lapl, (elec_num) ]
&BEGIN_PROVIDER [ double precision, jast_lapl_jast_inv, (elec_num) ]
implicit none
include '../types.F'
BEGIN_DOC
! Lapl(J)/J
END_DOC
integer :: i
integer,save :: ifirst = 0
if (ifirst == 0) then
ifirst = 1
!DIR$ VECTOR ALIGNED
jast_lapl_jast_inv = 0.d0
endif
if (do_jast) then
BEGIN_TEMPLATE
if (jast_type == t_$X) then
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
jast_lapl_jast_inv(i) = (jast_elec_$X_lapl(i) + &
jast_grad_jast_inv_x(i)*jast_grad_jast_inv_x(i) + &
jast_grad_jast_inv_y(i)*jast_grad_jast_inv_y(i) + &
jast_grad_jast_inv_z(i)*jast_grad_jast_inv_z(i) )
enddo
endif
SUBST [X]
Simple ;;
Core ;;
END_TEMPLATE
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (256)
do i=1,elec_num
jast_lapl(i) = jast_lapl_jast_inv(i) * jast_value
enddo
endif
END_PROVIDER

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src/JASTROW/jastrow_param.irp.f Normal file
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! Input data
! ----------
BEGIN_PROVIDER [ logical, do_jast ]
implicit none
BEGIN_DOC
! If true, compute the Jastrow factor
END_DOC
include '../types.F'
do_jast = jast_type /= t_None
call linfo(irp_here,'do_jast',do_jast)
END_PROVIDER
BEGIN_PROVIDER [ integer, jast_type ]
implicit none
include '../types.F'
BEGIN_DOC
! Type of Jastrow factor : Simple or Core
END_DOC
character*(32) :: buffer
buffer = types(t_Simple)
jast_type = t_Core
call get_jastrow_jast_type(buffer)
if (buffer == types(t_Simple)) then
jast_type = t_Simple
else if (buffer == types(t_None)) then
jast_type = t_None
else if (buffer == types(t_Core)) then
jast_type = t_Core
else
call abrt(irp_here,'Jastrow type should be (None|Simple|Core)')
endif
call cinfo(irp_here,'jast_type',buffer)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_a_up_up ]
implicit none
BEGIN_DOC
! a_{up up} parameters of the Jastrow
END_DOC
include '../types.F'
jast_a_up_up = 0.25
call get_jastrow_jast_a_up_up(jast_a_up_up)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_a_up_dn ]
implicit none
BEGIN_DOC
! a_{up dn} parameters of the Jastrow
END_DOC
include '../types.F'
jast_a_up_dn = 0.5
call get_jastrow_jast_a_up_dn(jast_a_up_dn)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_b_up_up ]
implicit none
BEGIN_DOC
! b_{up up} parameters of the Jastrow
END_DOC
include '../types.F'
jast_b_up_up = 5.
call get_jastrow_jast_b_up_up(jast_b_up_up)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_b_up_dn ]
implicit none
BEGIN_DOC
! b_{up dn} parameters of the Jastrow
END_DOC
include '../types.F'
jast_b_up_dn = 5.
call get_jastrow_jast_b_up_dn(jast_b_up_dn)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_pen, (nucl_num) ]
implicit none
BEGIN_DOC
! penetration parameters of the Jastrow
END_DOC
include '../types.F'
jast_pen(:) = 0.
call get_jastrow_jast_pen(jast_pen)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_eeN_e_a, (nucl_num) ]
implicit none
BEGIN_DOC
! a parameters of the electron-electron-Nucleus component of the Jastrow
END_DOC
include '../types.F'
jast_eeN_e_a(:) = 0.5
call get_jastrow_jast_eeN_e_a(jast_eeN_e_a)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_eeN_e_b, (nucl_num) ]
implicit none
BEGIN_DOC
! b parameters of the electron-electron-Nucleus component of the Jastrow
END_DOC
include '../types.F'
jast_eeN_e_b(:) = 3.
call get_jastrow_jast_eeN_e_b(jast_eeN_e_b)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_eeN_N, (nucl_num) ]
implicit none
BEGIN_DOC
! penetration parameters of the electron-electron-nucleus component of the Jastrow
END_DOC
include '../types.F'
integer :: i
jast_eeN_N(:) = 100.
call get_jastrow_jast_eeN_N(jast_eeN_N)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_core_a1, (nucl_num) ]
implicit none
BEGIN_DOC
! parameters of the core Jastrow
END_DOC
include '../types.F'
integer :: i
do i=1,nucl_num
if (nucl_charge(i) > 0.) then
jast_core_a1(i) = 0.6/nucl_charge(i)
else
jast_core_a1(i) = 0.
endif
enddo
call get_jastrow_jast_core_a1(jast_core_a1)
END_PROVIDER
BEGIN_PROVIDER [ real, jast_core_b1, (nucl_num) ]
implicit none
BEGIN_DOC
! parameters of the core Jastrow
END_DOC
include '../types.F'
jast_core_b1(:) = max(1.,1. - 0.3 * nucl_charge(:))
call get_jastrow_jast_core_b1(jast_core_b1)
END_PROVIDER

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src/JASTROW/jastrow_simple.irp.f Normal file
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! Simple Jastrow
! --------------
BEGIN_PROVIDER [ double precision , jast_elec_Simple_value, (elec_num_8) ]
implicit none
BEGIN_DOC
! J(i) = \sum_j a.rij/(1+b^2.rij) - \sum_A (a.riA/(1+a.riA))^2
END_DOC
integer :: i,j
double precision :: a, b, rij, tmp
do i=1,elec_num
jast_elec_Simple_value(i) = 0.d0
!DIR$ LOOP COUNT (100)
do j=1,nucl_num
a = jast_pen(j)
rij = nucl_elec_dist(j,i)
tmp = a*rij/(1.d0+a*rij)
jast_elec_Simple_value(i) -= tmp*tmp
enddo
enddo
a = 0.5*jast_a_up_up
b = jast_b_up_up
do j=1,elec_alpha_num
!DIR$ LOOP COUNT (50)
do i=j+1,elec_alpha_num
rij = elec_dist(i,j)
tmp = a*rij/(1.d0+b*rij)
jast_elec_Simple_value(i) += tmp
jast_elec_Simple_value(j) += tmp
enddo
enddo
do j=elec_alpha_num+1,elec_num
!DIR$ LOOP COUNT (50)
do i=j+1,elec_num
rij = elec_dist(i,j)
tmp = a*rij/(1.d0+b*rij)
jast_elec_Simple_value(i) += tmp
jast_elec_Simple_value(j) += tmp
enddo
enddo
a = 0.5*jast_a_up_dn
b = jast_b_up_dn
do j=1,elec_alpha_num
!DIR$ LOOP COUNT (50)
do i=elec_alpha_num+1,elec_num
rij = elec_dist(i,j)
tmp = a*rij/(1.d0+b*rij)
jast_elec_Simple_value(i) += tmp
jast_elec_Simple_value(j) += tmp
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision , jast_elec_Simple_grad_x, (elec_num_8) ]
&BEGIN_PROVIDER [ double precision , jast_elec_Simple_grad_y, (elec_num_8) ]
&BEGIN_PROVIDER [ double precision , jast_elec_Simple_grad_z, (elec_num_8) ]
implicit none
BEGIN_DOC
! Gradient of the Jastrow factor
END_DOC
integer :: i,j
double precision :: a, b, rij, tmp, x, y, z
do i=1,elec_num
jast_elec_Simple_grad_x(i) = 0.d0
jast_elec_Simple_grad_y(i) = 0.d0
jast_elec_Simple_grad_z(i) = 0.d0
!DIR$ LOOP COUNT (100)
do j=1,nucl_num
a = jast_pen(j)
rij = a*nucl_elec_dist(j,i)
tmp = (a+a)*a/(1.d0+rij*(3.d0+rij*(3.d0+rij)))
jast_elec_Simple_grad_x(i) -= nucl_elec_dist_vec(1,j,i)*tmp
jast_elec_Simple_grad_y(i) -= nucl_elec_dist_vec(2,j,i)*tmp
jast_elec_Simple_grad_z(i) -= nucl_elec_dist_vec(3,j,i)*tmp
enddo
enddo
a = jast_a_up_up
b = jast_b_up_up
do j=1,elec_alpha_num
!DIR$ LOOP COUNT (50)
do i=1,j-1
rij = elec_dist(i,j)
tmp = a/(rij*(1.d0+b*rij*(2.d0+b*rij)))
jast_elec_Simple_grad_x(i) += elec_dist_vec_x(i,j)*tmp
jast_elec_Simple_grad_y(i) += elec_dist_vec_y(i,j)*tmp
jast_elec_Simple_grad_z(i) += elec_dist_vec_z(i,j)*tmp
jast_elec_Simple_grad_x(j) -= elec_dist_vec_x(i,j)*tmp
jast_elec_Simple_grad_y(j) -= elec_dist_vec_y(i,j)*tmp
jast_elec_Simple_grad_z(j) -= elec_dist_vec_z(i,j)*tmp
enddo
enddo
do j=elec_alpha_num+1,elec_num
!DIR$ LOOP COUNT (50)
do i=elec_alpha_num+1,j-1
rij = elec_dist(i,j)
tmp = a/(rij*(1.d0+b*rij*(2.d0+b*rij)))
jast_elec_Simple_grad_x(i) += elec_dist_vec_x(i,j)*tmp
jast_elec_Simple_grad_y(i) += elec_dist_vec_y(i,j)*tmp
jast_elec_Simple_grad_z(i) += elec_dist_vec_z(i,j)*tmp
jast_elec_Simple_grad_x(j) -= elec_dist_vec_x(i,j)*tmp
jast_elec_Simple_grad_y(j) -= elec_dist_vec_y(i,j)*tmp
jast_elec_Simple_grad_z(j) -= elec_dist_vec_z(i,j)*tmp
enddo
enddo
a = jast_a_up_dn
b = jast_b_up_dn
do j=1,elec_alpha_num
!DIR$ LOOP COUNT (50)
do i=elec_alpha_num+1,elec_num
rij = elec_dist(i,j)
tmp = a/(rij*(1.d0+b*rij*(2.d0+b*rij)))
jast_elec_Simple_grad_x(i) += elec_dist_vec_x(i,j)*tmp
jast_elec_Simple_grad_y(i) += elec_dist_vec_y(i,j)*tmp
jast_elec_Simple_grad_z(i) += elec_dist_vec_z(i,j)*tmp
jast_elec_Simple_grad_x(j) -= elec_dist_vec_x(i,j)*tmp
jast_elec_Simple_grad_y(j) -= elec_dist_vec_y(i,j)*tmp
jast_elec_Simple_grad_z(j) -= elec_dist_vec_z(i,j)*tmp
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision , jast_elec_Simple_lapl, (elec_num_8) ]
implicit none
BEGIN_DOC
! Laplacian of the Jastrow factor
END_DOC
integer :: i,j
double precision :: a, b, rij, tmp, x, y, z
do i=1,elec_num
jast_elec_Simple_lapl(i) = 0.d0
!DIR$ LOOP COUNT (100)
do j=1,nucl_num
a = jast_pen(j)
rij = a*nucl_elec_dist(j,i)
tmp = 6.d0*a*a/(1.d0+rij*(4.d0+rij*(6.d0+rij*(4.d0+rij))))
jast_elec_Simple_lapl(i) -= tmp
enddo
enddo
a = jast_a_up_up+jast_a_up_up
b = jast_b_up_up
do j=1,elec_alpha_num
!DIR$ LOOP COUNT (50)
do i=1,j-1
rij = b*elec_dist(i,j)
tmp = a/(elec_dist(i,j)*(1.d0+rij*(3.d0+rij*(3.d0+rij))))
jast_elec_Simple_lapl(i) += tmp
jast_elec_Simple_lapl(j) += tmp
enddo
enddo
do j=elec_alpha_num+1,elec_num
!DIR$ LOOP COUNT (100)
do i=j+1,elec_num
rij = b*elec_dist(i,j)
tmp = a/(elec_dist(i,j)*(1.d0+rij*(3.d0+rij*(3.d0+rij))))
jast_elec_Simple_lapl(i) += tmp
jast_elec_Simple_lapl(j) += tmp
enddo
enddo
a = jast_a_up_dn+jast_a_up_dn
b = jast_b_up_dn
do j=1,elec_alpha_num
!DIR$ LOOP COUNT (100)
do i=elec_alpha_num+1,elec_num
rij = b*elec_dist(i,j)
tmp = a/(elec_dist(i,j)*(1.d0+rij*(3.d0+rij*(3.d0+rij))))
jast_elec_Simple_lapl(i) += tmp
jast_elec_Simple_lapl(j) += tmp
enddo
enddo
END_PROVIDER

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qmc_create_walkers
qmc
qmcchem_info

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program qmc
call main_qmc
end

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program main_prepare_walkers
implicit none
! Delete old walkers files if they exist
call system ('bash -c "rm -f '//trim(ezfio_filename)//'/electrons/elec_coord_pool{.gz,_size}"')
call set_parameters
call draw_init_points
call run_prepare_walkers
call save_elec_coord_full
call run
end
subroutine run
implicit none
TOUCH elec_coord_full
E_loc_min = huge(1.d0)
E_loc_max = -huge(1.d0)
print *, '<E_loc> min max'
integer :: i
do i=1,4
call test_block
call save_elec_coord_full
TOUCH elec_coord_full
E_loc_min = huge(1.d0)
E_loc_max = -huge(1.d0)
enddo
print *, 'Generated ', walk_num, ' walkers'
end
subroutine set_parameters
implicit none
include '../types.F'
do_prepare = .True.
call ezfio_set_properties_e_loc(.True.)
qmc_method = t_VMC
vmc_algo = t_Langevin
ci_threshold = 0.99999
time_step = 0.1
block_time = 2.
prepare_walkers_t = 0.
time_step_inv = 1./time_step
dtime_step = dble(time_step)
SOFT_TOUCH vmc_algo ci_threshold time_step prepare_walkers_t block_time time_step_inv dtime_step do_prepare
end
subroutine test_block
implicit none
print *, real(E_loc_vmc_block_walk), real(E_loc_min), real(E_loc_max)
end

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program qmcchem_info
implicit none
PROVIDE ezfio_filename
double precision :: cpu0, cpu1
character*(8) :: str_n
integer :: iargc
integer :: imax
if (command_argument_count() > 1) then
call get_command_argument(2,str_n)
read(str_n,*) imax
else
imax = 100
endif
print *, 'Number of determinants : ', det_num
print *, 'Number of unique alpha/beta determinants : ', det_alpha_num, det_beta_num
! print *, 'Number of vectors in SVD : ', psi_svd_size
print *, 'Closed-shell MOs : ', mo_closed_num
print *, 'Number of MOs in determinants : ', num_present_mos
! print *, 'do SVD? : ', do_det_svd
! print *, 'det_coef matrix is sparse : ', det_coef_matrix_is_sparse
print *, 'Det alpha norm:'
print *, det_alpha_norm
print *, 'Det beta norm:'
print *, det_beta_norm
call step1
call cpu_time (cpu0)
call step2(imax)
call cpu_time (cpu1)
print *, 'Time for the calculation of E_loc (ms) : ', 1000.*(cpu1-cpu0)/float(imax)
end
subroutine step1
implicit none
print *, 'E_loc : ', E_loc
PROVIDE E_loc
end
subroutine step2(imax)
implicit none
integer, intent(in) :: imax
integer :: i
do i=1,imax
PROVIDE E_loc
TOUCH elec_coord
enddo
end

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BEGIN_SHELL [ /usr/bin/env python ]
import os
from properties import properties
root = os.environ['QMCCHEM_PATH']
template = """
BEGIN_PROVIDER [ logical, calc_%(p)s ]
implicit none
BEGIN_DOC
! If true, calculate %(p)s
END_DOC
calc_%(p)s = .False.
logical :: has_%(p)s
if (.not.is_worker) then
call ezfio_has_properties_%(p)s(has_%(p)s)
if (has_%(p)s) then
call ezfio_get_properties_%(p)s(calc_%(p)s)
endif
else
call zmq_ezfio_has('properties_%(p)s',has_%(p)s)
if (has_%(p)s) then
call zmq_ezfio_get_logical('properties_%(p)s',calc_%(p)s,1)
endif
endif
END_PROVIDER
"""
for p in properties:
print template%{'p':p[1]}
t="""
BEGIN_PROVIDER [ $T, $X_min ]
&BEGIN_PROVIDER [ $T, $X_max ]
implicit none
BEGIN_DOC
! Minimum and maximum values of $X
END_DOC
$X_min = huge(1.)
$X_max =-huge(1.)
END_PROVIDER
BEGIN_PROVIDER [ $T, $X_2 $D ]
implicit none
BEGIN_DOC
! Square of $X
END_DOC
$X_2= $X*$X
END_PROVIDER
"""
for p in properties:
d = ""
if p[2] != '':
d = ", %s"%(p[2])
print t.replace("$T",p[0]).replace("$X",p[1]).replace("$D",d)
END_SHELL
!==========================================================================!
! DIMENSIONS
!==========================================================================!
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
make_dims()
END_SHELL
!==========================================================================!
! !
!==========================================================================!
!==========================================================================!
! PROPERTIES !
!==========================================================================!

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!==========================================================================!
! DIMENSIONS
!==========================================================================!
BEGIN_PROVIDER [ double precision, single_det_E_kin ]
implicit none
BEGIN_DOC
! Electronic Kinetic energy : -1/2 (Lapl.Psi)/Psi
END_DOC
integer :: i
single_det_E_kin = 0.d0
do i=1,elec_num
single_det_E_kin -= 0.5d0*single_det_lapl(i)/single_det_value
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, single_det_E_loc ]
implicit none
BEGIN_DOC
! Local energy : single_det_E_kin + E_pot + E_nucl
END_DOC
single_det_E_loc = single_det_E_kin + E_pot + E_nucl
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_pot_grad, (elec_num,3) ]
implicit none
BEGIN_DOC
! Gradient of the Electronic Potential energy
END_DOC
integer :: i,j
double precision :: dinv
do i=1,elec_num
E_pot_grad(i,1) = 0.d0
E_pot_grad(i,2) = 0.d0
E_pot_grad(i,3) = 0.d0
enddo
do j=1,elec_num
do i=1,j-1
dinv = elec_dist_inv(i,j)
dinv = dinv*dinv*dinv
E_pot_grad(i,1) -= elec_dist_vec_x(i,j)*dinv
E_pot_grad(i,2) -= elec_dist_vec_y(i,j)*dinv
E_pot_grad(i,3) -= elec_dist_vec_z(i,j)*dinv
enddo
do i=j+1,elec_num
dinv = elec_dist_inv(i,j)
dinv = dinv*dinv*dinv
E_pot_grad(i,1) -= elec_dist_vec_x(i,j)*dinv
E_pot_grad(i,2) -= elec_dist_vec_y(i,j)*dinv
E_pot_grad(i,3) -= elec_dist_vec_z(i,j)*dinv
enddo
enddo
do i=1,elec_num
do j=1,nucl_num
dinv = nucl_charge(j)*nucl_elec_dist_inv(j,i)**3
E_pot_grad(i,1) += nucl_elec_dist_vec(1,j,i)*dinv
E_pot_grad(i,2) += nucl_elec_dist_vec(2,j,i)*dinv
E_pot_grad(i,3) += nucl_elec_dist_vec(3,j,i)*dinv
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_pot_elec, (elec_num) ]
implicit none
BEGIN_DOC
! Electronic Potential energy
END_DOC
integer :: i, j
if (do_pseudo) then
do i=1,elec_num
E_pot_elec(i) = v_pseudo_local(i) + pseudo_non_local(i)
enddo
else
do i=1,elec_num
E_pot_elec(i) = 0.d0
enddo
endif
do i=1,elec_num
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(50)
do j=1,elec_num
E_pot_elec(i) = E_pot_elec(i) + 0.5d0*elec_dist_inv(j,i)
enddo
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(50)
do j=1,nucl_num
E_pot_elec(i) = E_pot_elec(i) - nucl_charge(j)*nucl_elec_dist_inv(j,i)
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_pot_elec_one, (elec_num) ]
implicit none
BEGIN_DOC
! Electronic Potential energy
END_DOC
integer :: i, j
do i=1,elec_num
E_pot_elec_one(i) = 0.d0
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do j=1,nucl_num
E_pot_elec_one(i) -= nucl_charge(j)*nucl_elec_dist_inv(j,i)
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_pot_elec_two, (elec_num) ]
implicit none
BEGIN_DOC
! Electronic Potential energy
END_DOC
integer :: i, j
do i=1,elec_num
E_pot_elec_two(i) = 0.d0
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do j=1,elec_num
if (j==i) then
cycle
endif
E_pot_elec_two(i) += 0.5d0*elec_dist_inv(j,i)
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_kin_elec, (elec_num) ]
implicit none
BEGIN_DOC
! Electronic Kinetic energy : -1/2 (Lapl.Psi)/Psi
END_DOC
integer :: i
do i=1,elec_num
E_kin_elec(i) = -0.5d0*psi_lapl_psi_inv(i)
enddo
END_PROVIDER
!==========================================================================!
! PROPERTIES !
!==========================================================================!
BEGIN_PROVIDER [ double precision, E_nucl ]
implicit none
BEGIN_DOC
! Nuclear potential energy
END_DOC
E_nucl = 0.d0
integer :: i, j
do i=1,nucl_num
do j=1,i-1
E_nucl += nucl_charge(i)*nucl_charge(j)/nucl_dist(j,i)
enddo
enddo
E_nucl_min = min(E_nucl,E_nucl_min)
E_nucl_max = max(E_nucl,E_nucl_max)
SOFT_TOUCH E_nucl_min E_nucl_max
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_pot ]
implicit none
BEGIN_DOC
! Electronic Potential energy
END_DOC
E_pot = 0.d0
integer :: i, j
do i=1,elec_num
E_pot += E_pot_elec(i)
enddo
E_pot_min = min(E_pot,E_pot_min)
E_pot_max = max(E_pot,E_pot_max)
SOFT_TOUCH E_pot_min E_pot_max
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_kin ]
implicit none
BEGIN_DOC
! Electronic Kinetic energy : -1/2 (Lapl.Psi)/Psi
END_DOC
E_kin = 0.d0
integer :: i
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
E_kin -= 0.5d0*psi_lapl_psi_inv(i)
enddo
E_kin_min = min(E_kin,E_kin_min)
E_kin_max = max(E_kin,E_kin_max)
SOFT_TOUCH E_kin_min E_kin_max
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_loc ]
implicit none
include '../types.F'
BEGIN_DOC
! Local energy : E_kin + E_pot + E_nucl
END_DOC
integer :: i
E_loc = E_nucl
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
E_loc += E_kin_elec(i) + E_pot_elec(i)
enddo
! Avoid divergence of E_loc
if (qmc_method == t_DMC) then
double precision :: delta_e
delta_e = E_loc-E_ref
E_loc = E_ref + erf(1.d0/(time_step*delta_e*time_step*delta_e)) * delta_e
endif
E_loc_min = min(E_loc,E_loc_min)
E_loc_max = max(E_loc,E_loc_max)
SOFT_TOUCH E_loc_min E_loc_max
END_PROVIDER

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!==========================================================================!
! PROPERTIES !
!==========================================================================!
BEGIN_PROVIDER [ double precision, dipole, (3) ]
implicit none
BEGIN_DOC
! Dipole moment
END_DOC
integer :: i
dipole = 0.d0
do i=1,nucl_num
dipole(1) += nucl_coord(i,1)*nucl_charge(i)
dipole(2) += nucl_coord(i,2)*nucl_charge(i)
dipole(3) += nucl_coord(i,3)*nucl_charge(i)
enddo
do i=1,elec_num
dipole(1) -= elec_coord(i,1)
dipole(2) -= elec_coord(i,2)
dipole(3) -= elec_coord(i,3)
enddo
dipole *= 2.541765d0
dipole_min = min(minval(dipole),dipole_min)
dipole_max = max(minval(dipole),dipole_max)
SOFT_TOUCH dipole_min dipole_max
END_PROVIDER
BEGIN_PROVIDER [ double precision, wf_extension ]
implicit none
BEGIN_DOC
! Wave function extension
END_DOC
wf_extension = 0.d0
integer :: i
do i=1,elec_num
wf_extension += elec_coord(i,1)*elec_coord(i,1) + elec_coord(i,2)*elec_coord(i,2) + elec_coord(i,3)*elec_coord(i,3)
enddo
wf_extension_min = min(wf_extension,wf_extension_min)
wf_extension_max = max(wf_extension,wf_extension_max)
SOFT_TOUCH wf_extension_min wf_extension_max
END_PROVIDER
BEGIN_PROVIDER [ double precision, drift_mod, (size_drift_mod) ]
implicit none
BEGIN_DOC
! Modulus of the drift per electron
!
! Dimensions : elec_num
END_DOC
integer :: i, j
do i=1,elec_num
drift_mod(i) = sqrt( &
psi_grad_psi_inv_x(i)*psi_grad_psi_inv_x(i) + &
psi_grad_psi_inv_y(i)*psi_grad_psi_inv_y(i) + &
psi_grad_psi_inv_z(i)*psi_grad_psi_inv_z(i) )
enddo
drift_mod_min = min(minval(drift_mod),drift_mod_min)
drift_mod_max = max(maxval(drift_mod),drift_mod_max)
SOFT_TOUCH drift_mod_min drift_mod_max
END_PROVIDER

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! Providers of *_block_walk
!==============================
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
BEGIN_PROVIDER [ $T, $X_block_walk $D1 ]
&BEGIN_PROVIDER [ $T, $X_2_block_walk $D1 ]
implicit none
include '../types.F'
BEGIN_DOC
! Properties averaged over the block per walker
END_DOC
if (qmc_method == t_VMC) then
PROVIDE E_loc_vmc_block_walk
if (calc_$X) then
$X_block_walk = $X_vmc_block_walk
$X_2_block_walk = $X_2_vmc_block_walk
endif
else if (qmc_method == t_DMC) then
PROVIDE E_loc_dmc_block_walk
if (calc_$X) then
$X_block_walk = $X_dmc_block_walk
$X_2_block_walk = $X_2_dmc_block_walk
endif
endif
END_PROVIDER
"""
for p in properties:
if p[2] == "":
D1 = ""
else:
D1 = ", ("+p[2][1:-1]+")"
print t.replace("$X",p[1]).replace("$T",p[0]).replace("$D1",D1)
END_SHELL
BEGIN_PROVIDER [ double precision, block_weight ]
implicit none
include '../types.F'
BEGIN_DOC
! Weight of the current block in the full average of the simulation
END_DOC
integer :: i
block_weight = 0.d0
END_PROVIDER

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subroutine brownian_step(p,q,accepted,delta_x)
implicit none
include '../types.F'
double precision,intent(out) :: p,q
logical, intent(out) :: accepted
real,intent(out) :: delta_x
real :: xold_x(elec_num+1)
real :: xold_y(elec_num+1)
real :: xold_z(elec_num+1)
double precision :: psiold
double precision :: bold0_x(elec_num),bold_x(elec_num),bnew_x(elec_num)
double precision :: bold0_y(elec_num),bold_y(elec_num),bnew_y(elec_num)
double precision :: bold0_z(elec_num),bold_z(elec_num),bnew_z(elec_num)
double precision :: E_old
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xold_x
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xold_y
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xold_z
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: bold_x
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: bold_y
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: bold_z
integer :: i,l
psiold = psi_value
if (psiold == 0.) then
call abrt(irp_here,'Walker is on the nodal surface.')
endif
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do i=1,elec_num+1
xold_x(i) = elec_coord(i,1)
xold_y(i) = elec_coord(i,2)
xold_z(i) = elec_coord(i,3)
enddo
!DIR$ VECTOR ALIGNED
bold0_x = psi_grad_psi_inv_x
bold_x = psi_grad_psi_inv_x
!DIR$ VECTOR ALIGNED
bold0_y = psi_grad_psi_inv_y
bold_y = psi_grad_psi_inv_y
!DIR$ VECTOR ALIGNED
bold0_z = psi_grad_psi_inv_z
bold_z = psi_grad_psi_inv_z
! real :: time_step_inv
! time_step_inv = 1./time_step
! !DIR$ VECTOR ALIGNED
! do i=1,elec_num
! if (bold_x(i) > time_step_inv) then
! bold_x(i) = time_step_inv
! else if (bold_x(i) < -time_step_inv) then
! bold_x(i) = -time_step_inv
! endif
! if (bold_y(i) > time_step_inv) then
! bold_y(i) = time_step_inv
! else if (bold_y(i) < -time_step_inv) then
! bold_y(i) = -time_step_inv
! endif
! if (bold_z(i) > time_step_inv) then
! bold_z(i) = time_step_inv
! else if (bold_z(i) < -time_step_inv) then
! bold_z(i) = -time_step_inv
! endif
! enddo
double precision :: b2old, b2max, tmp
b2old = 0.d0
b2max = 0.d0
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do i=1,elec_num
b2old += bold_x(i)*bold_x(i) + bold_y(i)*bold_y(i) + bold_z(i)*bold_z(i)
enddo
real :: xdiff_x (elec_num)
real :: xdiff_y (elec_num)
real :: xdiff_z (elec_num)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xdiff_x
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xdiff_y
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xdiff_z
double precision :: gauss
! integer :: k
! k=0
do l=1,3
do i=1,elec_num
!k=k+1
!double precision :: halton_gauss
!xbrown(i,l) = halton_gauss(k)*time_step_sq
xbrown(i,l) = gauss()*time_step_sq
enddo
enddo
delta_x = 0.
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do i=1,elec_num
xdiff_x(i) = bold_x(i)*time_step + xbrown(i,1)
xdiff_y(i) = bold_y(i)*time_step + xbrown(i,2)
xdiff_z(i) = bold_z(i)*time_step + xbrown(i,3)
delta_x += xdiff_x(i)*xdiff_x(i) + xdiff_y(i)*xdiff_y(i) + xdiff_z(i)*xdiff_z(i)
enddo
delta_x = sqrt(delta_x)
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do i=1,elec_num
elec_coord(i,1) = xold_x(i) + xdiff_x(i)
elec_coord(i,2) = xold_y(i) + xdiff_y(i)
elec_coord(i,3) = xold_z(i) + xdiff_z(i)
enddo
TOUCH elec_coord
!DIR$ VECTOR ALIGNED
bnew_x = psi_grad_psi_inv_x
!DIR$ VECTOR ALIGNED
bnew_y = psi_grad_psi_inv_y
!DIR$ VECTOR ALIGNED
bnew_z = psi_grad_psi_inv_z
! !DIR$ VECTOR ALIGNED
! do i=1,elec_num
! if (bnew_x(i) > time_step_inv) then
! bnew_x(i) = time_step_inv
! else if (bnew_x(i) < -time_step_inv) then
! bnew_x(i) = -time_step_inv
! endif
! if (bnew_y(i) > time_step_inv) then
! bnew_y(i) = time_step_inv
! else if (bnew_y(i) < -time_step_inv) then
! bnew_y(i) = -time_step_inv
! endif
! if (bnew_z(i) > time_step_inv) then
! bnew_z(i) = time_step_inv
! else if (bnew_z(i) < -time_step_inv) then
! bnew_z(i) = -time_step_inv
! endif
! enddo
double precision :: ratio
ratio = psi_value/psiold
ratio *= ratio
double precision :: b2new
b2new = 0.d0
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do i=1,elec_num
b2new += bnew_x(i)*bnew_x(i) + bnew_y(i)*bnew_y(i) + bnew_z(i)*bnew_z(i)
enddo
double precision :: prod
prod = 0.d0
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do i=1,elec_num
prod += ( bnew_x(i)+bold_x(i) )*xdiff_x(i) &
+ ( bnew_y(i)+bold_y(i) )*xdiff_y(i) &
+ ( bnew_z(i)+bold_z(i) )*xdiff_z(i)
enddo
double precision :: argexpo
argexpo = 0.5d0*(b2new-b2old)*time_step+prod
p = min (1.d0,ratio*exp(-argexpo))
q = 1.d0 - p
double precision :: qmc_ranf
accepted = p > qmc_ranf()
if (accepted) then
accepted_num += 1.
else
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(100)
do i=1,elec_num
elec_coord(i,1) = xold_x(i)
elec_coord(i,2) = xold_y(i)
elec_coord(i,3) = xold_z(i)
enddo
!DIR$ VECTOR ALIGNED
psi_grad_psi_inv_x = bold0_x
!DIR$ VECTOR ALIGNED
psi_grad_psi_inv_y = bold0_y
!DIR$ VECTOR ALIGNED
psi_grad_psi_inv_z = bold0_z
psi_value = psiold
rejected_num += 1.
SOFT_TOUCH elec_coord psi_grad_psi_inv_x psi_grad_psi_inv_y psi_grad_psi_inv_z psi_value
endif
end

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! Providers of *_dmc_block_walk
!==============================
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
BEGIN_PROVIDER [ $T, $X_dmc_block_walk $D1 ]
&BEGIN_PROVIDER [ $T, $X_dmc_block_walk_kahan $D2 ]
&BEGIN_PROVIDER [ $T, $X_2_dmc_block_walk $D1 ]
&BEGIN_PROVIDER [ $T, $X_2_dmc_block_walk_kahan $D2 ]
implicit none
BEGIN_DOC
! VMC averages of $X
END_DOC
$X_dmc_block_walk = 0.d0
$X_dmc_block_walk_kahan = 0.d0
$X_2_dmc_block_walk = 0.d0
$X_2_dmc_block_walk_kahan = 0.d0
END_PROVIDER
"""
for p in properties:
if p[1] != 'e_loc':
if p[2] == "":
D1 = ""
D2 = ", (3)"
else:
D1 = ", ("+p[2][1:-1]+")"
D2 = ", ("+p[2][1:-1]+",3)"
print t.replace("$X",p[1]).replace("$T",p[0]).replace("$D1",D1).replace("$D2",D2)
END_SHELL
BEGIN_PROVIDER [ double precision, E_loc_dmc_block_walk ]
&BEGIN_PROVIDER [ double precision, E_loc_2_dmc_block_walk ]
&BEGIN_PROVIDER [ double precision, E_loc_dmc_block_walk_kahan, (3) ]
&BEGIN_PROVIDER [ double precision, E_loc_2_dmc_block_walk_kahan, (3)
implicit none
include '../types.F'
BEGIN_DOC
! Properties averaged over the block using the DMC method
END_DOC
real, allocatable :: elec_coord_tmp(:,:,:)
integer :: mod_align
double precision, allocatable :: psi_grad_psi_inv_save_tmp(:,:,:)
double precision :: psi_value_save_tmp(walk_num)
integer :: trapped_walk_tmp(walk_num)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: psi_grad_psi_inv_save_tmp
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: psi_value_save_tmp
allocate ( elec_coord_tmp(mod_align(elec_num+1),3,walk_num) )
allocate ( psi_grad_psi_inv_save_tmp(elec_num_8,3,walk_num) )
! Initialization
if (vmc_algo /= t_Brownian) then
call abrt(irp_here,'DMC should run with Brownian algorithm')
endif
PROVIDE E_loc_vmc_block_walk
integer :: k, i_walk, i_step
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
if (calc_$X) then
$X_dmc_block_walk = 0.d0
$X_dmc_block_walk_kahan = 0.d0
$X_2_dmc_block_walk = 0.d0
$X_2_dmc_block_walk_kahan = 0.d0
$X_min = huge(1.)
$X_max =-huge(1.)
endif
"""
for p in properties:
print t.replace("$X",p[1])
END_SHELL
double precision :: icount
icount = 0.d0
logical :: loop
integer*8 :: cpu0, cpu1, cpu2, count_rate, count_max
loop = .True.
call system_clock(cpu0, count_rate, count_max)
cpu2 = cpu0
do while (loop)
dmc_projection_step = mod(dmc_projection_step+1,dmc_projection)+1
pop_weight_mult *= 1.d0/pop_weight(dmc_projection_step)
pop_weight(dmc_projection_step) = 0.d0
do k=1,walk_num
pop_weight(dmc_projection_step) += dmc_weight(k)
enddo
do k=1,walk_num
dmc_weight(k) = dmc_weight(k)/pop_weight(dmc_projection_step)
enddo
pop_weight(dmc_projection_step) = pop_weight(dmc_projection_step)/dble(walk_num)
pop_weight_mult *= pop_weight(dmc_projection_step)
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
if (calc_$X) then
! Kahan's summation algorithm to compute these sums reducing the rounding error:
! $X_dmc_block_walk($D) += $X * pop_weight_mult
! $X_2_dmc_block_walk($D) += $X_2 * pop_weight_mult
! see http://en.wikipedia.org/wiki/Kahan_summation_algorithm
$X_dmc_block_walk_kahan($D2 3) = $X * pop_weight_mult - $X_dmc_block_walk_kahan($D2 1)
$X_dmc_block_walk_kahan($D2 2) = $X_dmc_block_walk $D1 + $X_dmc_block_walk_kahan($D2 3)
$X_dmc_block_walk_kahan($D2 1) = ($X_dmc_block_walk_kahan($D2 2) - $X_dmc_block_walk $D1 ) &
- $X_dmc_block_walk_kahan($D2 3)
$X_dmc_block_walk $D1 = $X_dmc_block_walk_kahan($D2 2)
$X_2_dmc_block_walk_kahan($D2 3) = $X_2 * pop_weight_mult - $X_2_dmc_block_walk_kahan($D2 1)
$X_2_dmc_block_walk_kahan($D2 2) = $X_2_dmc_block_walk $D1 + $X_2_dmc_block_walk_kahan($D2 3)
$X_2_dmc_block_walk_kahan($D2 1) = ($X_2_dmc_block_walk_kahan($D2 2) - $X_2_dmc_block_walk $D1 ) &
- $X_2_dmc_block_walk_kahan($D2 3)
$X_2_dmc_block_walk $D1 = $X_2_dmc_block_walk_kahan($D2 2)
endif
"""
for p in properties:
if p[2] == "":
D1 = ""
D2 = ""
else:
D1 = "("+":"*(p[2].count(',')+1)+")"
D2 = ":"*(p[2].count(',')+1)+","
print t.replace("$X",p[1]).replace("$D1",D1).replace("$D2",D2)
END_SHELL
icount += pop_weight_mult
! Reconfiguration
integer :: ipos(walk_num)
call reconfigure(ipos,dmc_weight)
do k=1,walk_num
integer :: i, l
do l=1,3
do i=1,elec_num+1
elec_coord_tmp(i,l,k) = elec_coord_full(i,l,k)
enddo
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
psi_grad_psi_inv_save_tmp(i,l,k) = psi_grad_psi_inv_save(i,l,k)
enddo
enddo
psi_value_save_tmp(k) = psi_value_save(k)
trapped_walk_tmp(k) = trapped_walk(k)
enddo
integer :: ipm
do k=1,walk_num
ipm = ipos(k)
do l=1,3
do i=1,elec_num+1
elec_coord_full(i,l,k) = elec_coord_tmp(i,l,ipm)
enddo
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
psi_grad_psi_inv_save(i,l,k) = psi_grad_psi_inv_save_tmp(i,l,ipm)
enddo
enddo
psi_value_save(k) = psi_value_save_tmp(ipm)
trapped_walk(k) = trapped_walk_tmp(ipm)
enddo
! Set 1st walker
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
psi_grad_psi_inv_x(i) = psi_grad_psi_inv_save(i,1,1)
psi_grad_psi_inv_y(i) = psi_grad_psi_inv_save(i,2,1)
psi_grad_psi_inv_z(i) = psi_grad_psi_inv_save(i,3,1)
enddo
!DIR$ VECTOR UNALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
elec_coord(i,1) = elec_coord_full(i,1,1)
elec_coord(i,2) = elec_coord_full(i,2,1)
elec_coord(i,3) = elec_coord_full(i,3,1)
enddo
psi_value = psi_value_save(1)
TOUCH elec_coord_full psi_value_save psi_grad_psi_inv_save psi_value psi_grad_psi_inv_x psi_grad_psi_inv_y psi_grad_psi_inv_z elec_coord
call system_clock(cpu1, count_rate, count_max)
if (cpu1 < cpu0) then
cpu1 = cpu1+cpu0
endif
loop = dble(cpu1-cpu0) < dble(block_time)*dble(count_rate)
if (cpu1-cpu2 > count_rate) then
integer :: do_run
call get_running(do_run)
loop = do_run == t_Running
cpu2 = cpu1
endif
enddo
double precision :: factor
factor = 1.d0/icount
block_weight *= icount
SOFT_TOUCH block_weight
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
if (calc_$X) then
$X_dmc_block_walk *= factor
$X_2_dmc_block_walk *= factor
endif
"""
for p in properties:
print t.replace("$X",p[1])
END_SHELL
deallocate ( elec_coord_tmp )
deallocate ( psi_grad_psi_inv_save_tmp )
END_PROVIDER
BEGIN_PROVIDER [ double precision, E_ref ]
implicit none
BEGIN_DOC
! Weight of the DMC population
END_DOC
E_ref = 0.d0
call get_simulation_E_ref(E_ref)
END_PROVIDER
BEGIN_PROVIDER [ double precision, pop_weight_mult ]
implicit none
BEGIN_DOC
! Population weight of DMC
END_DOC
pop_weight_mult = 1.d0
END_PROVIDER
BEGIN_PROVIDER [ integer, dmc_projection ]
&BEGIN_PROVIDER [ integer, dmc_projection_step ]
implicit none
BEGIN_DOC
! Number of projection steps for SRMC
END_DOC
dmc_projection = int( 10.d0/time_step)
dmc_projection_step = 0
END_PROVIDER
BEGIN_PROVIDER [ double precision, pop_weight, (dmc_projection) ]
implicit none
BEGIN_DOC
! Population weight of DMC
END_DOC
pop_weight = 1.d0
END_PROVIDER

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BEGIN_PROVIDER [ double precision, elec_mass ]
implicit none
BEGIN_DOC
! Electron mass in the Langevin algorithm
END_DOC
integer :: i
elec_mass=0.d0
do i=1,nucl_num
elec_mass=max(dble(nucl_charge(i)),dble(elec_mass))
enddo
elec_mass=elec_mass**1.5
END_PROVIDER
BEGIN_PROVIDER [ real, elec_impuls_full, (elec_num,4,walk_num)]
implicit none
BEGIN_DOC
! Impulsions used in the Langevin algorithm
END_DOC
integer :: i,k,l
double precision :: temp(elec_num,3)
do k=1,walk_num
call gauss_array(elec_num*3,temp)
do l=1,3
do i=1,elec_num
elec_impuls_full(i,l,k) = time_step*temp(i,l)
enddo
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ real, elec_impuls, (elec_num_8,3)]
implicit none
BEGIN_DOC
! Impulsions used in the Langevin algorithm for the current walker
END_DOC
integer :: i,l
do l=1,3
do i=1,elec_num
elec_impuls(i,l) = elec_impuls_full(i,l,walk_i)
enddo
enddo
END_PROVIDER
BEGIN_PROVIDER [ double precision, langevin_sigma, (2) ]
&BEGIN_PROVIDER [ double precision, langevin_c12 ]
&BEGIN_PROVIDER [ double precision, langevin_coef, (4) ]
implicit none
BEGIN_DOC
! Quantities needed for the Langevin algorithm.
END_DOC
langevin_sigma(1) = sqrt (time_step/elec_mass * &
(2.d0- (3.d0-4.d0*time_step_exp + time_step_exp**2)/time_step) )
langevin_sigma(2) = sqrt (elec_mass * (1.d0-time_step_exp**2))
langevin_c12 = (1.d0-time_step_exp)**2/(langevin_sigma(1)*langevin_sigma(2))
langevin_coef(1) = 1.d0/elec_mass*time_step*time_step_exp_sq
langevin_coef(2) = time_step_exp_sq_sq*time_step**2/elec_mass
langevin_coef(3) = langevin_sigma(2)*sqrt(1.d0-langevin_c12**2)
langevin_coef(4) = langevin_c12*langevin_sigma(2)/langevin_sigma(1)
END_PROVIDER
subroutine langevin_step(p,q,accepted,delta_x)
implicit none
double precision, intent(out) :: p,q
logical, intent(out) :: accepted
real, intent(out) :: delta_x
real :: xold(elec_num_8,3)
real :: pold(elec_num_8,3)
double precision :: psiold
double precision :: bold(elec_num_8,3)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xold, bold, pold
integer :: i,l
psiold = psi_value
if (psiold == 0.d0) then
call abrt(irp_here,'Walker is on the nodal surface.')
endif
do l=1,3
!DIR$ LOOP COUNT (200)
!DIR$ VECTOR ALIGNED
do i=1,elec_num
xold(i,l) = elec_coord(i,l)
pold(i,l) = elec_impuls(i,l)
enddo
enddo
!DIR$ LOOP COUNT (200)
!DIR$ VECTOR ALIGNED
do i=1,elec_num
bold(i,1) = psi_grad_psi_inv_x(i)
bold(i,2) = psi_grad_psi_inv_y(i)
bold(i,3) = psi_grad_psi_inv_z(i)
enddo
! First move
! W1
call gauss_array(size(xbrown),xbrown)
do l=1,3
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
xbrown(i,l) = xbrown(i,l)*langevin_sigma(1)
enddo
enddo
real :: xdiff (elec_num_8,3)
! q(n+1)
delta_x = 0.
do l=1,3
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
xdiff(i,l) = pold(i,l)*langevin_coef(1) &
+ bold(i,l)*langevin_coef(2) &
+ xbrown(i,l)
delta_x += xdiff(i,l)*xdiff(i,l)
enddo
enddo
delta_x = sqrt(delta_x)
do l=1,3
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
elec_coord(i,l) = elec_coord(i,l) + xdiff(i,l)
enddo
enddo
TOUCH elec_coord
! Second move
! W2
double precision :: gauss
do l=1,3
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
xbrown(i,l) = langevin_coef(3)*gauss() + &
langevin_coef(4)*xbrown(i,l)
enddo
enddo
! p(n+1)
!DIR$ LOOP COUNT (200)
do i=1,elec_num
elec_impuls(i,1) = time_step_exp*pold(i,1) &
+ time_step*(bold(i,1)+psi_grad_psi_inv_x(i))*time_step_exp_sq &
+ xbrown(i,1)
elec_impuls(i,2) = time_step_exp*pold(i,2) &
+ time_step*(bold(i,2)+psi_grad_psi_inv_y(i))*time_step_exp_sq &
+ xbrown(i,2)
elec_impuls(i,3) = time_step_exp*pold(i,3) &
+ time_step*(bold(i,3)+psi_grad_psi_inv_z(i))*time_step_exp_sq &
+ xbrown(i,3)
enddo
! TOUCH elec_impuls
! (touch moved after acceptation)
p = 1.d0
double precision :: ratio
ratio = (psi_value/psiold)**2
double precision :: dt_dm
dt_dm = time_step/elec_mass
!DIR$ LOOP COUNT (200)
do i=1,elec_num
double precision :: d11
double precision :: d12
double precision :: temp
double precision :: d21
double precision :: d22
double precision :: re
d11 = -xdiff(i,1) &
+ dt_dm*elec_impuls(i,1)*time_step_exp_sq &
- time_step*dt_dm*psi_grad_psi_inv_x(i)*time_step_exp_sq_sq
d12 = xdiff(i,1) &
- dt_dm*pold(i,1)*time_step_exp_sq &
- time_step*dt_dm*bold(i,1)*time_step_exp_sq_sq
temp = time_step*(psi_grad_psi_inv_x(i)+bold(i,1))*time_step_exp_sq
d21 = -pold(i,1)+elec_impuls(i,1)*time_step_exp - temp
d22 = elec_impuls(i,1)-pold(i,1)*time_step_exp -temp
re = (d11/langevin_sigma(1))**2+(d21/langevin_sigma(2))**2 &
- 2.d0*langevin_c12*d11*d21/(langevin_sigma(1)*langevin_sigma(2))
re -= (d12/langevin_sigma(1))**2+(d22/langevin_sigma(2))**2 &
- 2.d0*langevin_c12*d12*d22/(langevin_sigma(1)*langevin_sigma(2))
re = re / (2.d0*(1.d0-langevin_c12**2))
if (re < 35.d0) then
p=p*exp(-re)
else
p = 0.d0
endif
d11 = -xdiff(i,2) &
+ dt_dm*elec_impuls(i,2)*time_step_exp_sq &
- time_step*dt_dm*psi_grad_psi_inv_y(i)*time_step_exp_sq_sq
d12 = xdiff(i,2) &
- dt_dm*pold(i,2)*time_step_exp_sq &
- time_step*dt_dm*bold(i,2)*time_step_exp_sq_sq
temp = time_step*(psi_grad_psi_inv_y(i)+bold(i,2))*time_step_exp_sq
d21 = -pold(i,2)+elec_impuls(i,2)*time_step_exp - temp
d22 = elec_impuls(i,2)-pold(i,2)*time_step_exp -temp
re = (d11/langevin_sigma(1))**2+(d21/langevin_sigma(2))**2 &
- 2.d0*langevin_c12*d11*d21/(langevin_sigma(1)*langevin_sigma(2))
re -= (d12/langevin_sigma(1))**2+(d22/langevin_sigma(2))**2 &
- 2.d0*langevin_c12*d12*d22/(langevin_sigma(1)*langevin_sigma(2))
re = re / (2.d0*(1.d0-langevin_c12**2))
if (re < 35.d0) then
p=p*exp(-re)
else
p = 0.d0
endif
d11 = -xdiff(i,3) &
+ dt_dm*elec_impuls(i,3)*time_step_exp_sq &
- time_step*dt_dm*psi_grad_psi_inv_z(i)*time_step_exp_sq_sq
d12 = xdiff(i,3) &
- dt_dm*pold(i,3)*time_step_exp_sq &
- time_step*dt_dm*bold(i,3)*time_step_exp_sq_sq
temp = time_step*(psi_grad_psi_inv_z(i)+bold(i,3))*time_step_exp_sq
d21 = -pold(i,3)+elec_impuls(i,3)*time_step_exp - temp
d22 = elec_impuls(i,3)-pold(i,3)*time_step_exp -temp
re = (d11/langevin_sigma(1))**2+(d21/langevin_sigma(2))**2 &
- 2.d0*langevin_c12*d11*d21/(langevin_sigma(1)*langevin_sigma(2))
re -= (d12/langevin_sigma(1))**2+(d22/langevin_sigma(2))**2 &
- 2.d0*langevin_c12*d12*d22/(langevin_sigma(1)*langevin_sigma(2))
re = re / (2.d0*(1.d0-langevin_c12**2))
if (re < 35.d0) then
p=p*exp(-re)
else
p = 0.d0
endif
double precision :: sumup, sumdn
sumup = elec_impuls(i,1)*elec_impuls(i,1) &
+ elec_impuls(i,2)*elec_impuls(i,2) &
+ elec_impuls(i,3)*elec_impuls(i,3)
sumdn = pold(i,1)*pold(i,1) + pold(i,2)*pold(i,2) + pold(i,3)*pold(i,3)
re = exp(-(sumup-sumdn)/(2.d0*elec_mass))
p = p*re
enddo
p = min (1.d0,ratio*p)
q = 1.d0 - p
double precision :: qmc_ranf
accepted = p > qmc_ranf()
if (accepted) then
accepted_num += 1.
SOFT_TOUCH elec_impuls
else
do l=1,3
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
elec_coord(i,l) = xold(i,l)
elec_impuls(i,l) = -pold(i,l)
enddo
enddo
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
psi_grad_psi_inv_x(i) = bold(i,1)
psi_grad_psi_inv_y(i) = bold(i,2)
psi_grad_psi_inv_z(i) = bold(i,3)
enddo
psi_value = psiold
rejected_num += 1.
SOFT_TOUCH elec_coord psi_grad_psi_inv_x psi_grad_psi_inv_y psi_grad_psi_inv_z psi_value
endif
end

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subroutine reconfigure(ipos,w)
implicit none
integer, intent(inout) :: ipos(*)
double precision, intent(in) :: w(*)
integer :: kp, km
double precision :: accup, accum
integer :: k
double precision :: dwalk_num
dwalk_num = dble(walk_num)
integer :: kptab(walk_num), kmtab(walk_num)
double precision :: wp(walk_num), wm(walk_num)
double precision :: tmp
do k=1,walk_num
ipos(k) = k
enddo
kp=0
km=0
accup = 0.d0
accum = 0.d0
do k=1,walk_num
tmp = dwalk_num*w(k)-1.d0
if (tmp >= 0.d0) then
kp += 1
wp(kp) = abs(tmp)
accup += wp(kp)
kptab(kp) = k
else
km += 1
wm(km) = abs(tmp)
accum += wm(km)
kmtab(km) = k
endif
enddo
if(kp+km /= walk_num) then
print *, kp, km
call abrt(irp_here,'pb in reconfiguration +/-')
endif
if(abs(accup-accum).gt.1.d-11) then
print *, accup, accum
call abrt(irp_here,'pb in reconfiguration')
endif
double precision :: qmc_ranf, rand
double precision :: rando(walk_num)
rand = qmc_ranf()
do k=1,walk_num
rando(k) = dble(k-1)+rand
enddo
double precision :: averageconf, current
integer :: kcp
integer :: kadd, kremove
averageconf = accup
kcp = 1
rand = rando(kcp)
do while (rand < averageconf)
k=1
current=wm(k)
do while (rand > current)
k += 1
current += wm(k)
enddo
kremove = kmtab(k)
k=1
current=wp(k)
do while (rand > current)
k += 1
current += wp(k)
enddo
kadd = kptab(k)
ipos(kremove) = kadd
kcp += 1
rand = rando(kcp)
enddo
end

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! Providers of *_vmc_block_walk
!==============================
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
BEGIN_PROVIDER [ $T, $X_vmc_block_walk $D1 ]
&BEGIN_PROVIDER [ $T, $X_vmc_block_walk_kahan $D2 ]
&BEGIN_PROVIDER [ $T, $X_2_vmc_block_walk $D1 ]
&BEGIN_PROVIDER [ $T, $X_2_vmc_block_walk_kahan $D2 ]
implicit none
BEGIN_DOC
! VMC averages of $X
END_DOC
END_PROVIDER
"""
for p in properties:
if p[1] != 'e_loc':
if p[2] == "":
D1 = ""
D2 = ", (3)"
else:
D1 = ", ("+p[2][1:-1]+")"
D2 = ", ("+p[2][1:-1]+",3)"
print t.replace("$X",p[1]).replace("$T",p[0]).replace("$D1",D1).replace("$D2",D2)
END_SHELL
BEGIN_PROVIDER [ double precision, E_loc_vmc_block_walk ]
&BEGIN_PROVIDER [ double precision, E_loc_2_vmc_block_walk ]
&BEGIN_PROVIDER [ double precision, E_loc_vmc_block_walk_kahan, (3) ]
&BEGIN_PROVIDER [ double precision, E_loc_2_vmc_block_walk_kahan, (3) ]
implicit none
include '../types.F'
BEGIN_DOC
! Properties averaged over the block per walker using the VMC method
END_DOC
integer :: i_walk
PROVIDE time_step
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
if (calc_$X) then
!DIR$ VECTOR ALIGNED
$X_vmc_block_walk = 0.d0
!DIR$ VECTOR ALIGNED
$X_vmc_block_walk_kahan = 0.d0
!DIR$ VECTOR ALIGNED
$X_2_vmc_block_walk = 0.d0
!DIR$ VECTOR ALIGNED
$X_2_vmc_block_walk_kahan = 0.d0
$X_min = huge(1.)
$X_max =-huge(1.)
endif
"""
for p in properties:
print t.replace("$X",p[1])
END_SHELL
double precision :: dnorm
!DIR$ VECTOR ALIGNED
block_weight = 0.d0
do i_walk=1,walk_num
integer :: i,j,l
if (i_walk > 1) then
do l=1,3
do i=1,elec_num+1
elec_coord(i,l) = elec_coord_full(i,l,i_walk)
enddo
enddo
endif
PROVIDE psi_grad_psi_inv_save psi_value_save
if (psi_value_save(walk_num) /= 0.) then
psi_value = psi_value_save(i_walk)
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT(200)
do i=1,elec_num
psi_grad_psi_inv_x(i) = psi_grad_psi_inv_save(i,1,i_walk)
psi_grad_psi_inv_y(i) = psi_grad_psi_inv_save(i,2,i_walk)
psi_grad_psi_inv_z(i) = psi_grad_psi_inv_save(i,3,i_walk)
enddo
TOUCH psi_value psi_grad_psi_inv_x psi_grad_psi_inv_y psi_grad_psi_inv_z elec_coord
else
if (i_walk > 1) then
TOUCH elec_coord
endif
endif
logical :: loop
integer*8 :: cpu0, cpu1, cpu2, count_rate, count_max
loop = .True.
call system_clock(cpu0, count_rate, count_max)
cpu2 = cpu0
do while (loop)
double precision :: p,q
real :: delta_x
logical :: accepted
double precision :: E_old
if (vmc_algo == t_Brownian) then
call brownian_step(p,q,accepted,delta_x)
else if (vmc_algo == t_Langevin) then
call langevin_step(p,q,accepted,delta_x)
endif
elec_coord(elec_num+1,1) += p*time_step
elec_coord(elec_num+1,2) = E_loc
elec_coord(elec_num+1,3) += p*time_step
if (accepted) then
trapped_walk(i_walk) = 0
else
trapped_walk(i_walk) += 1
endif
block_weight += 1.d0
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
if (calc_$X) then
! Kahan's summation algorithm to compute these sums reducing the rounding error:
! $X_vmc_block_walk $D1 += $X
! $X_2_vmc_block_walk $D1 += $X_2
! see http://en.wikipedia.org/wiki/Kahan_summation_algorithm
$X_vmc_block_walk_kahan($D2 3) = $X - $X_vmc_block_walk_kahan($D2 1)
$X_vmc_block_walk_kahan($D2 2) = $X_vmc_block_walk $D1 + $X_vmc_block_walk_kahan($D2 3)
$X_vmc_block_walk_kahan($D2 1) = ($X_vmc_block_walk_kahan($D2 2) - $X_vmc_block_walk $D1 ) &
- $X_vmc_block_walk_kahan($D2 3)
$X_vmc_block_walk $D1 = $X_vmc_block_walk_kahan($D2 2)
$X_2_vmc_block_walk_kahan($D2 3) = $X_2 - $X_2_vmc_block_walk_kahan($D2 1)
$X_2_vmc_block_walk_kahan($D2 2) = $X_2_vmc_block_walk $D1 + $X_2_vmc_block_walk_kahan($D2 3)
$X_2_vmc_block_walk_kahan($D2 1) = ($X_2_vmc_block_walk_kahan($D2 2) - $X_2_vmc_block_walk $D1 ) &
- $X_2_vmc_block_walk_kahan($D2 3)
$X_2_vmc_block_walk $D1 = $X_2_vmc_block_walk_kahan($D2 2)
endif
"""
for p in properties:
if p[2] == "":
D1 = ""
D2 = ""
else:
D1 = "("+":"*(p[2].count(',')+1)+")"
D2 = ":"*(p[2].count(',')+1)+","
print t.replace("$X",p[1]).replace("$D1",D1).replace("$D2",D2)
END_SHELL
if ( qmc_method == t_VMC ) then
call system_clock(cpu1, count_rate, count_max)
if (cpu1 < cpu0) then
cpu1 = cpu1+cpu0
endif
loop = dble(cpu1-cpu0)*dble(walk_num) < dble(block_time)*dble(count_rate)
if (cpu1-cpu2 > count_rate) then
integer :: do_run
call get_running(do_run)
loop = do_run == t_Running
cpu2 = cpu1
endif
else
loop = .False.
endif
enddo ! while (loop)
do l=1,3
do i=1,elec_num+1
elec_coord_full(i,l,i_walk) = elec_coord(i,l)
enddo
enddo
if (qmc_method == t_DMC) then
psi_value_save(i_walk) = psi_value
!DIR$ VECTOR ALIGNED
!DIR$ LOOP COUNT (200)
do i=1,elec_num
psi_grad_psi_inv_save(i,1,i_walk) = psi_grad_psi_inv_x(i)
psi_grad_psi_inv_save(i,2,i_walk) = psi_grad_psi_inv_y(i)
psi_grad_psi_inv_save(i,3,i_walk) = psi_grad_psi_inv_z(i)
enddo
! if ( (trapped_walk(i_walk) < trapped_walk_max).and. &
! (psi_value * psi_value_save(i_walk) > 0.d0).and. &
! (dabs(E_ref-E_loc)*time_step_sq < -.2d0*E_ref) ) then
if ( (trapped_walk(i_walk) < trapped_walk_max).and. &
(psi_value * psi_value_save(i_walk) > 0.d0) ) then
dmc_weight(i_walk) = exp(time_step*(E_ref - E_loc))
else
dmc_weight(i_walk) = 0.d0
trapped_walk(i_walk) = 0
endif
endif
enddo
double precision :: factor
factor = 1.d0/block_weight
SOFT_TOUCH block_weight
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
t = """
if (calc_$X) then
$X_vmc_block_walk *= factor
$X_2_vmc_block_walk *= factor
endif
"""
for p in properties:
print t.replace("$X",p[1])
END_SHELL
SOFT_TOUCH elec_coord_full
END_PROVIDER
BEGIN_PROVIDER [ double precision, dmc_weight, (walk_num_8) ]
implicit none
BEGIN_DOC
! Weight of the walkers in the DMC algorithm: exp(-time_step*(E_loc-E_ref))
END_DOC
!DIR$ VECTOR ALIGNED
dmc_weight = 1.d0
END_PROVIDER
BEGIN_PROVIDER [ double precision, psi_grad_psi_inv_save, (elec_num_8,3,walk_num) ]
&BEGIN_PROVIDER [ double precision, psi_value_save, (walk_num_8) ]
implicit none
BEGIN_DOC
! psi_grad_psi_inv of the previous step to accelerate DMC
!
! updated in vmc_step
END_DOC
integer, save :: ifirst = 0
if (ifirst == 0) then
psi_grad_psi_inv_save = 0.d0
psi_value_save = 0.d0
ifirst = 1
endif
END_PROVIDER
BEGIN_PROVIDER [ integer, trapped_walk, (walk_num_8) ]
implicit none
BEGIN_DOC
! Number of steps when the walkers were trapped
END_DOC
trapped_walk = 0
END_PROVIDER
BEGIN_PROVIDER [ integer, trapped_walk_max ]
implicit none
BEGIN_DOC
! Max number of trapped MC steps before killing walker
END_DOC
trapped_walk_max = 5
END_PROVIDER

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BEGIN_PROVIDER [ character*(8), current_PID ]
implicit none
BEGIN_DOC
! Process ID
END_DOC
integer :: getpid
write(current_PID,'(I8)') getpid()
current_PID = adjustl(trim(current_PID))
END_PROVIDER
BEGIN_PROVIDER [ integer, simd_sp ]
&BEGIN_PROVIDER [ integer, simd_dp ]
implicit none
BEGIN_DOC
! Number of array elements for vectorization
END_DOC
simd_sp = max(1,$IRP_ALIGN / 4)
simd_dp = max(1,$IRP_ALIGN / 8)
END_PROVIDER
integer function mod_align(n)
implicit none
integer, intent(in) :: n
if (mod(n,simd_sp) /= 0) then
mod_align = n + simd_sp - mod(n,simd_sp)
else
mod_align = n
endif
end function
real function fact2(n)
implicit none
integer :: n
real :: dblefact_even
real :: dblefact_odd
if (mod(n,2) == 0) then
fact2 = dblefact_even(n)
else
fact2 = dblefact_odd(n)
endif
end
real function dblefact_even(n)
implicit none
integer :: n
real, save :: memo(1:100)
integer, save :: memomax = 2
integer :: i
if (n<=memomax) then
if (n<2) then
dblefact_even = 1.
else
dblefact_even = memo(n)
endif
return
endif
memo(2) = 2.
do i=memomax+2,min(n,100),2
memo(i) = memo(i-2)* float(i)
enddo
memomax = min(n,100)
dblefact_even = memo(memomax)
do i=102,n,2
dblefact_even = dblefact_even*float(i)
enddo
end
real function dblefact_odd(n)
implicit none
integer :: n
real, save :: memo(1:100)
integer, save :: memomax = 1
integer :: i
if (n<=memomax) then
if (n<3) then
dblefact_odd = 1.
else
dblefact_odd = memo(n)
endif
return
endif
memo(1) = 1.
do i=memomax+2,min(n,99),2
memo(i) = memo(i-2)* float(i)
enddo
memomax = min(n,99)
dblefact_odd = memo(memomax)
do i=101,n,2
dblefact_odd = dblefact_odd*float(i)
enddo
end
real function fact(n)
implicit none
integer :: n
real , save :: memo(1:100)
integer, save :: memomax = 1
if (n<=memomax) then
if (n<2) then
fact = 1.
else
fact = memo(n)
endif
return
endif
integer :: i
memo(1) = 1.
do i=memomax+1,min(n,100)
memo(i) = memo(i-1)*float(i)
enddo
memomax = min(n,100)
fact = memo(memomax)
do i=101,n
fact = fact*float(i)
enddo
end function
real function rintgauss(n)
implicit none
include '../constants.F'
integer :: n
rintgauss = sqrt(pi)
if ( n == 0 ) then
return
else if ( n == 1 ) then
rintgauss = 0.
else if ( mod(n,2) == 1) then
rintgauss = 0.
else
real :: fact2
rintgauss = rintgauss/(2.**(n/2))
rintgauss = rintgauss * fact2(n-1)
endif
end function
real function goverlap(gamA,gamB,nA)
implicit none
real :: gamA, gamB
integer :: nA(3)
real :: gamtot
gamtot = gamA+gamB
goverlap=1.0
integer :: l
real :: rintgauss
do l=1,3
goverlap *= rintgauss(nA(l)+nA(l))/ (gamtot**(0.5+float(nA(l))))
enddo
end function
double precision function binom(n,k)
implicit none
integer, intent(in) :: k,n
real :: fact
binom=fact(n)/(fact(k)*fact(n-k))
end
!DIR$ attributes forceinline :: transpose
recursive subroutine transpose(A,LDA,B,LDB,d1,d2)
implicit none
BEGIN_DOC
! Transpose input matrix A into output matrix B
END_DOC
integer, intent(in) :: d1, d2, LDA, LDB
real, intent(in) :: A(LDA,d2)
real, intent(out) :: B(LDB,d1)
integer :: i,j,k, mod_align
if ( d2 < 32 ) then
do j=1,d1
!DIR$ LOOP COUNT (16)
do i=1,d2
B(i,j ) = A(j ,i)
enddo
enddo
return
else if (d1 > d2) then
!DIR$ forceinline
k=d1/2
!DIR$ forceinline recursive
call transpose(A(1,1),LDA,B(1,1),LDB,k,d2)
!DIR$ forceinline recursive
call transpose(A(k+1,1),LDA,B(1,k+1),LDB,d1-k,d2)
return
else
!DIR$ forceinline
k=d2/2
!DIR$ forceinline recursive
call transpose(A(1,k+1),LDA,B(k+1,1),LDB,d1,d2-k)
!DIR$ forceinline recursive
call transpose(A(1,1),LDA,B(1,1),LDB,d1,k)
return
endif
end
subroutine gaussian_product(a,xa,b,xb,k,p,xp)
implicit none
! e^{-a (x-x_A)^2} e^{-b (x-x_B)^2} = K_{ab}^x e^{-p (x-x_P)^2}
real, intent(in) :: a,b ! Exponents
real, intent(in) :: xa(3),xb(3) ! Centers
real, intent(out) :: p ! New exponent
real, intent(out) :: xp(3) ! New center
real, intent(inout) :: k ! Constant
real :: p_inv
ASSERT (a>0.)
ASSERT (b>0.)
real :: xab(4), ab
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: xab
p_inv = 1./(a+b)
p = a+b
ab = a*b
xab(1) = xa(1)-xb(1)
xab(2) = xa(2)-xb(2)
xab(3) = xa(3)-xb(3)
xp(1) = (a*xa(1)+b*xb(1))*p_inv
xp(2) = (a*xa(2)+b*xb(2))*p_inv
xp(3) = (a*xa(3)+b*xb(3))*p_inv
k *= exp(-ab*p_inv*(xab(1)*xab(1)+xab(2)*xab(2)+xab(3)*xab(3)))
end subroutine
!DIR$ attributes forceinline :: transpose_to_dp
recursive subroutine transpose_to_dp(A,LDA,B,LDB,d1,d2)
implicit none
BEGIN_DOC
! Transpose SP input matrix A into DP output matrix B
END_DOC
integer, intent(in) :: d1, d2, LDA, LDB
real, intent(in) :: A(LDA,d2)
double precision, intent(out) :: B(LDB,d1)
integer :: i,j,k, mod_align
if ( d2 < 32 ) then
do j=1,d1
!DIR$ LOOP COUNT (16)
do i=1,d2
B(i,j ) = A(j ,i)
enddo
enddo
return
else if (d1 > d2) then
!DIR$ forceinline
k=d1/2
!DIR$ forceinline recursive
call transpose_to_dp(A(1,1),LDA,B(1,1),LDB,k,d2)
!DIR$ forceinline recursive
call transpose_to_dp(A(k+1,1),LDA,B(1,k+1),LDB,d1-k,d2)
return
else
!DIR$ forceinline
k=d2/2
!DIR$ forceinline recursive
call transpose_to_dp(A(1,k+1),LDA,B(k+1,1),LDB,d1,d2-k)
!DIR$ forceinline recursive
call transpose_to_dp(A(1,1),LDA,B(1,1),LDB,d1,k)
return
endif
end

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subroutine determinant(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
integer :: i,j
select case (na)
case default
!DIR$ forceinline
call determinant_general(a,LDA,na,det_l)
case (5)
!DIR$ forceinline
call determinant5(a,LDA,na,det_l)
case (4)
!DIR$ forceinline
call determinant4(a,LDA,na,det_l)
case (3)
!DIR$ forceinline
call determinant3(a,LDA,na,det_l)
case (2)
!DIR$ forceinline
call determinant2(a,LDA,na,det_l)
case (1)
!DIR$ forceinline
call determinant1(a,LDA,na,det_l)
case (0)
det_l=1.d0
end select
end
subroutine determinant_general(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: work(LDA*max(na,64))
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: work
integer :: inf
integer :: ipiv(LDA)
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: ipiv
integer :: lwork
double precision :: f
integer :: i, j
call dgetrf(na, na, a, LDA, ipiv, inf )
det_l = 1.d0
j=0
!DIR$ VECTOR ALIGNED
do i=1,na
j = j+min(abs(ipiv(i)-i),1)
det_l = det_l*a(i,i)
enddo
if (iand(j,1) /= 0) then
det_l = -det_l
endif
end
subroutine sdeterminant(a,LDA,na,det_l)
implicit none
real :: a (LDA,na)
integer :: LDA
integer :: na
real :: det_l
real :: work(LDA*max(na,64))
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: work
integer :: inf
integer :: ipiv(LDA)
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: ipiv
integer :: lwork
real :: f
integer :: i, j
call sgetrf(na, na, a, LDA, ipiv, inf )
det_l = 1.d0
j=0
!DIR$ VECTOR ALIGNED
do i=1,na
if (ipiv(i) /= i) then
j = j+1
endif
det_l = det_l*a(i,i)
enddo
if (iand(j,1) /= 0) then
det_l = -det_l
endif
end
subroutine determinant1(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
det_l = a(1,1)
end
subroutine determinant2(a,LDA,na,det_l)
implicit none
double precision :: a (LDA,na)
integer :: LDA
integer :: na
double precision :: det_l
double precision :: b(2,2)
double precision :: f
det_l = a(1,1)*a(2,2) - a(1,2)*a(2,1)
end
subroutine determinant3(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: b(4,3)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: b
integer :: i
double precision :: f
det_l = a(1,1)*(a(2,2)*a(3,3)-a(2,3)*a(3,2)) &
-a(1,2)*(a(2,1)*a(3,3)-a(2,3)*a(3,1)) &
+a(1,3)*(a(2,1)*a(3,2)-a(2,2)*a(3,1))
end
subroutine determinant4(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: b(4,4)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: b
integer :: i,j
double precision :: f
det_l = a(1,1)*(a(2,2)*(a(3,3)*a(4,4)-a(3,4)*a(4,3)) &
-a(2,3)*(a(3,2)*a(4,4)-a(3,4)*a(4,2)) &
+a(2,4)*(a(3,2)*a(4,3)-a(3,3)*a(4,2))) &
-a(1,2)*(a(2,1)*(a(3,3)*a(4,4)-a(3,4)*a(4,3)) &
-a(2,3)*(a(3,1)*a(4,4)-a(3,4)*a(4,1)) &
+a(2,4)*(a(3,1)*a(4,3)-a(3,3)*a(4,1))) &
+a(1,3)*(a(2,1)*(a(3,2)*a(4,4)-a(3,4)*a(4,2)) &
-a(2,2)*(a(3,1)*a(4,4)-a(3,4)*a(4,1)) &
+a(2,4)*(a(3,1)*a(4,2)-a(3,2)*a(4,1))) &
-a(1,4)*(a(2,1)*(a(3,2)*a(4,3)-a(3,3)*a(4,2)) &
-a(2,2)*(a(3,1)*a(4,3)-a(3,3)*a(4,1)) &
+a(2,3)*(a(3,1)*a(4,2)-a(3,2)*a(4,1)))
end
subroutine determinant5(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: b(5,5)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: b
integer :: i,j
double precision :: f
det_l = a(1,1)*(a(2,2)*(a(3,3)*(a(4,4)*a(5,5)-a(4,5)*a(5,4))-a(3,4)*( &
a(4,3)*a(5,5)-a(4,5)*a(5,3))+a(3,5)*(a(4,3)*a(5,4)-a(4,4)*a(5,3)))- &
a(2,3)*(a(3,2)*(a(4,4)*a(5,5)-a(4,5)*a(5,4))-a(3,4)*(a(4,2)*a(5,5)- &
a(4,5)*a(5,2))+a(3,5)*(a(4,2)*a(5,4)-a(4,4)*a(5,2)))+a(2,4)*(a(3,2)*( &
a(4,3)*a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,2)*a(5,5)-a(4,5)*a(5,2))+ &
a(3,5)*(a(4,2)*a(5,3)-a(4,3)*a(5,2)))-a(2,5)*(a(3,2)*(a(4,3)*a(5,4)- &
a(4,4)*a(5,3))-a(3,3)*(a(4,2)*a(5,4)-a(4,4)*a(5,2))+a(3,4)*(a(4,2)* &
a(5,3)-a(4,3)*a(5,2))))-a(1,2)*(a(2,1)*(a(3,3)*(a(4,4)*a(5,5)-a(4,5)* &
a(5,4))-a(3,4)*(a(4,3)*a(5,5)-a(4,5)*a(5,3))+a(3,5)*(a(4,3)*a(5,4)- &
a(4,4)*a(5,3)))-a(2,3)*(a(3,1)*(a(4,4)*a(5,5)-a(4,5)*a(5,4))-a(3,4)*( &
a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,4)-a(4,4)*a(5,1)))+ &
a(2,4)*(a(3,1)*(a(4,3)*a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,1)*a(5,5)- &
a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,3)-a(4,3)*a(5,1)))-a(2,5)*(a(3,1)*( &
a(4,3)*a(5,4)-a(4,4)*a(5,3))-a(3,3)*(a(4,1)*a(5,4)-a(4,4)*a(5,1))+ &
a(3,4)*(a(4,1)*a(5,3)-a(4,3)*a(5,1))))+a(1,3)*(a(2,1)*(a(3,2)*(a(4,4)* &
a(5,5)-a(4,5)*a(5,4))-a(3,4)*(a(4,2)*a(5,5)-a(4,5)*a(5,2))+a(3,5)*( &
a(4,2)*a(5,4)-a(4,4)*a(5,2)))-a(2,2)*(a(3,1)*(a(4,4)*a(5,5)-a(4,5)* &
a(5,4))-a(3,4)*(a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,4)- &
a(4,4)*a(5,1)))+a(2,4)*(a(3,1)*(a(4,2)*a(5,5)-a(4,5)*a(5,2))-a(3,2)*( &
a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,2)-a(4,2)*a(5,1)))- &
a(2,5)*(a(3,1)*(a(4,2)*a(5,4)-a(4,4)*a(5,2))-a(3,2)*(a(4,1)*a(5,4)- &
a(4,4)*a(5,1))+a(3,4)*(a(4,1)*a(5,2)-a(4,2)*a(5,1))))-a(1,4)*(a(2,1)*( &
a(3,2)*(a(4,3)*a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,2)*a(5,5)-a(4,5)* &
a(5,2))+a(3,5)*(a(4,2)*a(5,3)-a(4,3)*a(5,2)))-a(2,2)*(a(3,1)*(a(4,3)* &
a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*( &
a(4,1)*a(5,3)-a(4,3)*a(5,1)))+a(2,3)*(a(3,1)*(a(4,2)*a(5,5)-a(4,5)* &
a(5,2))-a(3,2)*(a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,2)- &
a(4,2)*a(5,1)))-a(2,5)*(a(3,1)*(a(4,2)*a(5,3)-a(4,3)*a(5,2))-a(3,2)*( &
a(4,1)*a(5,3)-a(4,3)*a(5,1))+a(3,3)*(a(4,1)*a(5,2)-a(4,2)*a(5,1))))+ &
a(1,5)*(a(2,1)*(a(3,2)*(a(4,3)*a(5,4)-a(4,4)*a(5,3))-a(3,3)*(a(4,2)* &
a(5,4)-a(4,4)*a(5,2))+a(3,4)*(a(4,2)*a(5,3)-a(4,3)*a(5,2)))-a(2,2)*( &
a(3,1)*(a(4,3)*a(5,4)-a(4,4)*a(5,3))-a(3,3)*(a(4,1)*a(5,4)-a(4,4)* &
a(5,1))+a(3,4)*(a(4,1)*a(5,3)-a(4,3)*a(5,1)))+a(2,3)*(a(3,1)*(a(4,2)* &
a(5,4)-a(4,4)*a(5,2))-a(3,2)*(a(4,1)*a(5,4)-a(4,4)*a(5,1))+a(3,4)*( &
a(4,1)*a(5,2)-a(4,2)*a(5,1)))-a(2,4)*(a(3,1)*(a(4,2)*a(5,3)-a(4,3)* &
a(5,2))-a(3,2)*(a(4,1)*a(5,3)-a(4,3)*a(5,1))+a(3,3)*(a(4,1)*a(5,2)- &
a(4,2)*a(5,1))))
end

38
src/TOOLS/info.irp.f Normal file
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@ -0,0 +1,38 @@
BEGIN_TEMPLATE
subroutine $Xinfo (here,token,value)
implicit none
character*(*), intent(in) :: here
character*(*), intent(in) :: token
$Y, intent(in) :: value
if (print_level>1) then
write(0,*) trim(here)//':'
$Z
endif
end
SUBST [ X, Y, Z ]
r; real;
write(0,*) ' -> ', trim(token), '=', value;;
d; double precision;
write(0,*) ' -> ', trim(token), '=', value;;
i; integer;
write(0,*) ' -> ', trim(token), '=', value;;
c; character*(*);
write(0,*) ' -> ', trim(token), '=', value;;
l; logical;
if (value) then
write(0,*) ' -> ', trim(token), '= True'
else
write(0,*) ' -> ', trim(token), '= False'
endif ;;
END_TEMPLATE
subroutine info(here,message)
implicit none
character*(*), intent(in) :: here, message
if (print_level > 1) then
write(0,*) trim(here)//':'
write(0,*) ' -> ', trim(message)
endif
end

441
src/TOOLS/invert.irp.f Normal file
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@ -0,0 +1,441 @@
subroutine invert(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
integer :: i,j
select case (na)
case default
!DIR$ forceinline
call invert_general(a,LDA,na,det_l)
case (5)
!DIR$ forceinline
call invert5(a,LDA,na,det_l)
case (4)
!DIR$ forceinline
call invert4(a,LDA,na,det_l)
case (3)
!DIR$ forceinline
call invert3(a,LDA,na,det_l)
case (2)
!DIR$ forceinline
call invert2(a,LDA,na,det_l)
case (1)
!DIR$ forceinline
call invert1(a,LDA,na,det_l)
case (0)
det_l=1.d0
end select
end
subroutine invert_general(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: work(LDA*max(na,64))
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: work
integer :: inf
integer :: ipiv(LDA)
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: ipiv
integer :: lwork
double precision :: f
integer :: i, j
call dgetrf(na, na, a, LDA, ipiv, inf )
det_l = 1.d0
j=0
!DIR$ VECTOR ALIGNED
do i=1,na
j = j+min(abs(ipiv(i)-i),1)
det_l = det_l*a(i,i)
enddo
if (iand(j,1) /= 0) then
det_l = -det_l
endif
lwork = SIZE(work)
call dgetri(na, a, LDA, ipiv, work, lwork, inf )
a = a*det_l
end
subroutine sinvert(a,LDA,na,det_l)
implicit none
real :: a (LDA,na)
integer :: LDA
integer :: na
real :: det_l
real :: work(LDA*max(na,64))
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: work
integer :: inf
integer :: ipiv(LDA)
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: ipiv
integer :: lwork
real :: f
integer :: i, j
call sgetrf(na, na, a, LDA, ipiv, inf )
det_l = 1.d0
j=0
!DIR$ VECTOR ALIGNED
do i=1,na
if (ipiv(i) /= i) then
j = j+1
endif
det_l = det_l*a(i,i)
enddo
if (iand(j,1) /= 0) then
det_l = -det_l
endif
lwork = SIZE(work)
call sgetri(na, a, LDA, ipiv, work, lwork, inf )
a = a*det_l
end
subroutine invert1(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
det_l = a(1,1)
a(1,1) = 1.d0
end
subroutine invert2(a,LDA,na,det_l)
implicit none
double precision :: a (LDA,na)
integer :: LDA
integer :: na
double precision :: det_l
double precision :: b(2,2)
double precision :: f
b(1,1) = a(1,1)
b(2,1) = a(2,1)
b(1,2) = a(1,2)
b(2,2) = a(2,2)
det_l = a(1,1)*a(2,2) - a(1,2)*a(2,1)
a(1,1) = b(2,2)
a(2,1) = -b(2,1)
a(1,2) = -b(1,2)
a(2,2) = b(1,1)
end
subroutine invert3(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: b(4,3)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: b
integer :: i
double precision :: f
det_l = a(1,1)*(a(2,2)*a(3,3)-a(2,3)*a(3,2)) &
-a(1,2)*(a(2,1)*a(3,3)-a(2,3)*a(3,1)) &
+a(1,3)*(a(2,1)*a(3,2)-a(2,2)*a(3,1))
do i=1,4
b(i,1) = a(i,1)
b(i,2) = a(i,2)
b(i,3) = a(i,3)
enddo
a(1,1) = b(2,2)*b(3,3) - b(2,3)*b(3,2)
a(2,1) = b(2,3)*b(3,1) - b(2,1)*b(3,3)
a(3,1) = b(2,1)*b(3,2) - b(2,2)*b(3,1)
a(1,2) = b(1,3)*b(3,2) - b(1,2)*b(3,3)
a(2,2) = b(1,1)*b(3,3) - b(1,3)*b(3,1)
a(3,2) = b(1,2)*b(3,1) - b(1,1)*b(3,2)
a(1,3) = b(1,2)*b(2,3) - b(1,3)*b(2,2)
a(2,3) = b(1,3)*b(2,1) - b(1,1)*b(2,3)
a(3,3) = b(1,1)*b(2,2) - b(1,2)*b(2,1)
end
subroutine invert4(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: b(4,4)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: b
integer :: i,j
double precision :: f
det_l = a(1,1)*(a(2,2)*(a(3,3)*a(4,4)-a(3,4)*a(4,3)) &
-a(2,3)*(a(3,2)*a(4,4)-a(3,4)*a(4,2)) &
+a(2,4)*(a(3,2)*a(4,3)-a(3,3)*a(4,2))) &
-a(1,2)*(a(2,1)*(a(3,3)*a(4,4)-a(3,4)*a(4,3)) &
-a(2,3)*(a(3,1)*a(4,4)-a(3,4)*a(4,1)) &
+a(2,4)*(a(3,1)*a(4,3)-a(3,3)*a(4,1))) &
+a(1,3)*(a(2,1)*(a(3,2)*a(4,4)-a(3,4)*a(4,2)) &
-a(2,2)*(a(3,1)*a(4,4)-a(3,4)*a(4,1)) &
+a(2,4)*(a(3,1)*a(4,2)-a(3,2)*a(4,1))) &
-a(1,4)*(a(2,1)*(a(3,2)*a(4,3)-a(3,3)*a(4,2)) &
-a(2,2)*(a(3,1)*a(4,3)-a(3,3)*a(4,1)) &
+a(2,3)*(a(3,1)*a(4,2)-a(3,2)*a(4,1)))
do i=1,4
b(1,i) = a(1,i)
b(2,i) = a(2,i)
b(3,i) = a(3,i)
b(4,i) = a(4,i)
enddo
a(1,1) = b(2,2)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))-b(2,3)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))+b(2,4)*(b(3,2)*b(4,3)-b(3,3)*b(4,2))
a(2,1) = -b(2,1)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))+b(2,3)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))-b(2,4)*(b(3,1)*b(4,3)-b(3,3)*b(4,1))
a(3,1) = b(2,1)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))-b(2,2)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))+b(2,4)*(b(3,1)*b(4,2)-b(3,2)*b(4,1))
a(4,1) = -b(2,1)*(b(3,2)*b(4,3)-b(3,3)*b(4,2))+b(2,2)*(b(3,1)*b(4,3)-b(3,3)*b(4,1))-b(2,3)*(b(3,1)*b(4,2)-b(3,2)*b(4,1))
a(1,2) = -b(1,2)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))+b(1,3)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))-b(1,4)*(b(3,2)*b(4,3)-b(3,3)*b(4,2))
a(2,2) = b(1,1)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))-b(1,3)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))+b(1,4)*(b(3,1)*b(4,3)-b(3,3)*b(4,1))
a(3,2) = -b(1,1)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))+b(1,2)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))-b(1,4)*(b(3,1)*b(4,2)-b(3,2)*b(4,1))
a(4,2) = b(1,1)*(b(3,2)*b(4,3)-b(3,3)*b(4,2))-b(1,2)*(b(3,1)*b(4,3)-b(3,3)*b(4,1))+b(1,3)*(b(3,1)*b(4,2)-b(3,2)*b(4,1))
a(1,3) = b(1,2)*(b(2,3)*b(4,4)-b(2,4)*b(4,3))-b(1,3)*(b(2,2)*b(4,4)-b(2,4)*b(4,2))+b(1,4)*(b(2,2)*b(4,3)-b(2,3)*b(4,2))
a(2,3) = -b(1,1)*(b(2,3)*b(4,4)-b(2,4)*b(4,3))+b(1,3)*(b(2,1)*b(4,4)-b(2,4)*b(4,1))-b(1,4)*(b(2,1)*b(4,3)-b(2,3)*b(4,1))
a(3,3) = b(1,1)*(b(2,2)*b(4,4)-b(2,4)*b(4,2))-b(1,2)*(b(2,1)*b(4,4)-b(2,4)*b(4,1))+b(1,4)*(b(2,1)*b(4,2)-b(2,2)*b(4,1))
a(4,3) = -b(1,1)*(b(2,2)*b(4,3)-b(2,3)*b(4,2))+b(1,2)*(b(2,1)*b(4,3)-b(2,3)*b(4,1))-b(1,3)*(b(2,1)*b(4,2)-b(2,2)*b(4,1))
a(1,4) = -b(1,2)*(b(2,3)*b(3,4)-b(2,4)*b(3,3))+b(1,3)*(b(2,2)*b(3,4)-b(2,4)*b(3,2))-b(1,4)*(b(2,2)*b(3,3)-b(2,3)*b(3,2))
a(2,4) = b(1,1)*(b(2,3)*b(3,4)-b(2,4)*b(3,3))-b(1,3)*(b(2,1)*b(3,4)-b(2,4)*b(3,1))+b(1,4)*(b(2,1)*b(3,3)-b(2,3)*b(3,1))
a(3,4) = -b(1,1)*(b(2,2)*b(3,4)-b(2,4)*b(3,2))+b(1,2)*(b(2,1)*b(3,4)-b(2,4)*b(3,1))-b(1,4)*(b(2,1)*b(3,2)-b(2,2)*b(3,1))
a(4,4) = b(1,1)*(b(2,2)*b(3,3)-b(2,3)*b(3,2))-b(1,2)*(b(2,1)*b(3,3)-b(2,3)*b(3,1))+b(1,3)*(b(2,1)*b(3,2)-b(2,2)*b(3,1))
end
subroutine invert5(a,LDA,na,det_l)
implicit none
double precision, intent(inout) :: a (LDA,na)
integer, intent(in) :: LDA
integer, intent(in) :: na
double precision, intent(inout) :: det_l
double precision :: b(5,5)
!DIR$ ATTRIBUTES ALIGN : $IRP_ALIGN :: b
integer :: i,j
double precision :: f
det_l = a(1,1)*(a(2,2)*(a(3,3)*(a(4,4)*a(5,5)-a(4,5)*a(5,4))-a(3,4)*( &
a(4,3)*a(5,5)-a(4,5)*a(5,3))+a(3,5)*(a(4,3)*a(5,4)-a(4,4)*a(5,3)))- &
a(2,3)*(a(3,2)*(a(4,4)*a(5,5)-a(4,5)*a(5,4))-a(3,4)*(a(4,2)*a(5,5)- &
a(4,5)*a(5,2))+a(3,5)*(a(4,2)*a(5,4)-a(4,4)*a(5,2)))+a(2,4)*(a(3,2)*( &
a(4,3)*a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,2)*a(5,5)-a(4,5)*a(5,2))+ &
a(3,5)*(a(4,2)*a(5,3)-a(4,3)*a(5,2)))-a(2,5)*(a(3,2)*(a(4,3)*a(5,4)- &
a(4,4)*a(5,3))-a(3,3)*(a(4,2)*a(5,4)-a(4,4)*a(5,2))+a(3,4)*(a(4,2)* &
a(5,3)-a(4,3)*a(5,2))))-a(1,2)*(a(2,1)*(a(3,3)*(a(4,4)*a(5,5)-a(4,5)* &
a(5,4))-a(3,4)*(a(4,3)*a(5,5)-a(4,5)*a(5,3))+a(3,5)*(a(4,3)*a(5,4)- &
a(4,4)*a(5,3)))-a(2,3)*(a(3,1)*(a(4,4)*a(5,5)-a(4,5)*a(5,4))-a(3,4)*( &
a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,4)-a(4,4)*a(5,1)))+ &
a(2,4)*(a(3,1)*(a(4,3)*a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,1)*a(5,5)- &
a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,3)-a(4,3)*a(5,1)))-a(2,5)*(a(3,1)*( &
a(4,3)*a(5,4)-a(4,4)*a(5,3))-a(3,3)*(a(4,1)*a(5,4)-a(4,4)*a(5,1))+ &
a(3,4)*(a(4,1)*a(5,3)-a(4,3)*a(5,1))))+a(1,3)*(a(2,1)*(a(3,2)*(a(4,4)* &
a(5,5)-a(4,5)*a(5,4))-a(3,4)*(a(4,2)*a(5,5)-a(4,5)*a(5,2))+a(3,5)*( &
a(4,2)*a(5,4)-a(4,4)*a(5,2)))-a(2,2)*(a(3,1)*(a(4,4)*a(5,5)-a(4,5)* &
a(5,4))-a(3,4)*(a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,4)- &
a(4,4)*a(5,1)))+a(2,4)*(a(3,1)*(a(4,2)*a(5,5)-a(4,5)*a(5,2))-a(3,2)*( &
a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,2)-a(4,2)*a(5,1)))- &
a(2,5)*(a(3,1)*(a(4,2)*a(5,4)-a(4,4)*a(5,2))-a(3,2)*(a(4,1)*a(5,4)- &
a(4,4)*a(5,1))+a(3,4)*(a(4,1)*a(5,2)-a(4,2)*a(5,1))))-a(1,4)*(a(2,1)*( &
a(3,2)*(a(4,3)*a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,2)*a(5,5)-a(4,5)* &
a(5,2))+a(3,5)*(a(4,2)*a(5,3)-a(4,3)*a(5,2)))-a(2,2)*(a(3,1)*(a(4,3)* &
a(5,5)-a(4,5)*a(5,3))-a(3,3)*(a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*( &
a(4,1)*a(5,3)-a(4,3)*a(5,1)))+a(2,3)*(a(3,1)*(a(4,2)*a(5,5)-a(4,5)* &
a(5,2))-a(3,2)*(a(4,1)*a(5,5)-a(4,5)*a(5,1))+a(3,5)*(a(4,1)*a(5,2)- &
a(4,2)*a(5,1)))-a(2,5)*(a(3,1)*(a(4,2)*a(5,3)-a(4,3)*a(5,2))-a(3,2)*( &
a(4,1)*a(5,3)-a(4,3)*a(5,1))+a(3,3)*(a(4,1)*a(5,2)-a(4,2)*a(5,1))))+ &
a(1,5)*(a(2,1)*(a(3,2)*(a(4,3)*a(5,4)-a(4,4)*a(5,3))-a(3,3)*(a(4,2)* &
a(5,4)-a(4,4)*a(5,2))+a(3,4)*(a(4,2)*a(5,3)-a(4,3)*a(5,2)))-a(2,2)*( &
a(3,1)*(a(4,3)*a(5,4)-a(4,4)*a(5,3))-a(3,3)*(a(4,1)*a(5,4)-a(4,4)* &
a(5,1))+a(3,4)*(a(4,1)*a(5,3)-a(4,3)*a(5,1)))+a(2,3)*(a(3,1)*(a(4,2)* &
a(5,4)-a(4,4)*a(5,2))-a(3,2)*(a(4,1)*a(5,4)-a(4,4)*a(5,1))+a(3,4)*( &
a(4,1)*a(5,2)-a(4,2)*a(5,1)))-a(2,4)*(a(3,1)*(a(4,2)*a(5,3)-a(4,3)* &
a(5,2))-a(3,2)*(a(4,1)*a(5,3)-a(4,3)*a(5,1))+a(3,3)*(a(4,1)*a(5,2)- &
a(4,2)*a(5,1))))
do i=1,5
b(1,i) = a(1,i)
b(2,i) = a(2,i)
b(3,i) = a(3,i)
b(4,i) = a(4,i)
b(5,i) = a(5,i)
enddo
a(1,1) = &
(b(2,2)*(b(3,3)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))+b(3,5)*(b(4,3)*b(5,4)-b(4,4)*b(5,3)))-b(2,3)* &
(b(3,2)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,4)-b(4,4)*b(5,2)))+b(2,4)* &
(b(3,2)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))-b(2,5)* &
(b(3,2)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))+b(3,4)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))))
a(2,1) = &
(-b(2,1)*(b(3,3)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))+b(3,5)*(b(4,3)*b(5,4)-b(4,4)*b(5,3)))+b(2,3)* &
(b(3,1)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,4)-b(4,4)*b(5,1)))-b(2,4)* &
(b(3,1)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))+b(2,5)* &
(b(3,1)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))))
a(3,1) = &
(b(2,1)*(b(3,2)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,4)-b(4,4)*b(5,2)))-b(2,2)* &
(b(3,1)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,4)-b(4,4)*b(5,1)))+b(2,4)* &
(b(3,1)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))-b(3,2)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))-b(2,5)* &
(b(3,1)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))-b(3,2)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(4,1) = &
(-b(2,1)*(b(3,2)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))+b(2,2)* &
(b(3,1)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))-b(2,3)* &
(b(3,1)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))-b(3,2)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))+b(2,5)* &
(b(3,1)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))-b(3,2)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))+b(3,3)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(5,1) = &
(b(2,1)*(b(3,2)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))+b(3,4)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))-b(2,2)* &
(b(3,1)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))+b(2,3)* &
(b(3,1)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))-b(3,2)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))-b(2,4)* &
(b(3,1)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))-b(3,2)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))+b(3,3)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(1,2) = &
(-b(1,2)*(b(3,3)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))+b(3,5)*(b(4,3)*b(5,4)-b(4,4)*b(5,3)))+b(1,3)* &
(b(3,2)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,4)-b(4,4)*b(5,2)))-b(1,4)* &
(b(3,2)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))+b(1,5)* &
(b(3,2)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))+b(3,4)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))))
a(2,2) = &
(b(1,1)*(b(3,3)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))+b(3,5)*(b(4,3)*b(5,4)-b(4,4)*b(5,3)))-b(1,3)* &
(b(3,1)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,4)-b(4,4)*b(5,1)))+b(1,4)* &
(b(3,1)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))-b(1,5)* &
(b(3,1)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))))
a(3,2) = &
(-b(1,1)*(b(3,2)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,4)-b(4,4)*b(5,2)))+b(1,2)* &
(b(3,1)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(3,4)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,4)-b(4,4)*b(5,1)))-b(1,4)* &
(b(3,1)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))-b(3,2)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))+b(1,5)* &
(b(3,1)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))-b(3,2)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(4,2) = &
(b(1,1)*(b(3,2)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(3,5)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))-b(1,2)* &
(b(3,1)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(3,3)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))+b(1,3)* &
(b(3,1)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))-b(3,2)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(3,5)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))-b(1,5)* &
(b(3,1)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))-b(3,2)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))+b(3,3)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(5,2) = &
(-b(1,1)*(b(3,2)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))+b(3,4)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))+b(1,2)* &
(b(3,1)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(3,3)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))-b(1,3)* &
(b(3,1)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))-b(3,2)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(3,4)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))+b(1,4)* &
(b(3,1)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))-b(3,2)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))+b(3,3)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(1,3) = &
(b(1,2)*(b(2,3)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(2,4)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))+b(2,5)*(b(4,3)*b(5,4)-b(4,4)*b(5,3)))-b(1,3)* &
(b(2,2)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(2,4)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(2,5)*(b(4,2)*b(5,4)-b(4,4)*b(5,2)))+b(1,4)* &
(b(2,2)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(2,3)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(2,5)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))-b(1,5)* &
(b(2,2)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(2,3)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))+b(2,4)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))))
a(2,3) = &
(-b(1,1)*(b(2,3)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(2,4)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))+b(2,5)*(b(4,3)*b(5,4)-b(4,4)*b(5,3)))+b(1,3)* &
(b(2,1)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(2,4)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(2,5)*(b(4,1)*b(5,4)-b(4,4)*b(5,1)))-b(1,4)* &
(b(2,1)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(2,3)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(2,5)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))+b(1,5)* &
(b(2,1)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(2,3)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(2,4)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))))
a(3,3) = &
(b(1,1)*(b(2,2)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(2,4)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(2,5)*(b(4,2)*b(5,4)-b(4,4)*b(5,2)))-b(1,2)* &
(b(2,1)*(b(4,4)*b(5,5)-b(4,5)*b(5,4))-b(2,4)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(2,5)*(b(4,1)*b(5,4)-b(4,4)*b(5,1)))+b(1,4)* &
(b(2,1)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))-b(2,2)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(2,5)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))-b(1,5)* &
(b(2,1)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))-b(2,2)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(2,4)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(4,3) = &
(-b(1,1)*(b(2,2)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(2,3)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))+b(2,5)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))+b(1,2)* &
(b(2,1)*(b(4,3)*b(5,5)-b(4,5)*b(5,3))-b(2,3)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(2,5)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))-b(1,3)* &
(b(2,1)*(b(4,2)*b(5,5)-b(4,5)*b(5,2))-b(2,2)*(b(4,1)*b(5,5)-b(4,5)*b(5,1))+b(2,5)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))+b(1,5)* &
(b(2,1)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))-b(2,2)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))+b(2,3)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(5,3) = &
(b(1,1)*(b(2,2)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(2,3)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))+b(2,4)*(b(4,2)*b(5,3)-b(4,3)*b(5,2)))-b(1,2)* &
(b(2,1)*(b(4,3)*b(5,4)-b(4,4)*b(5,3))-b(2,3)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(2,4)*(b(4,1)*b(5,3)-b(4,3)*b(5,1)))+b(1,3)* &
(b(2,1)*(b(4,2)*b(5,4)-b(4,4)*b(5,2))-b(2,2)*(b(4,1)*b(5,4)-b(4,4)*b(5,1))+b(2,4)*(b(4,1)*b(5,2)-b(4,2)*b(5,1)))-b(1,4)* &
(b(2,1)*(b(4,2)*b(5,3)-b(4,3)*b(5,2))-b(2,2)*(b(4,1)*b(5,3)-b(4,3)*b(5,1))+b(2,3)*(b(4,1)*b(5,2)-b(4,2)*b(5,1))))
a(1,4) = &
(-b(1,2)*(b(2,3)*(b(3,4)*b(5,5)-b(3,5)*b(5,4))-b(2,4)*(b(3,3)*b(5,5)-b(3,5)*b(5,3))+b(2,5)*(b(3,3)*b(5,4)-b(3,4)*b(5,3)))+b(1,3)* &
(b(2,2)*(b(3,4)*b(5,5)-b(3,5)*b(5,4))-b(2,4)*(b(3,2)*b(5,5)-b(3,5)*b(5,2))+b(2,5)*(b(3,2)*b(5,4)-b(3,4)*b(5,2)))-b(1,4)* &
(b(2,2)*(b(3,3)*b(5,5)-b(3,5)*b(5,3))-b(2,3)*(b(3,2)*b(5,5)-b(3,5)*b(5,2))+b(2,5)*(b(3,2)*b(5,3)-b(3,3)*b(5,2)))+b(1,5)* &
(b(2,2)*(b(3,3)*b(5,4)-b(3,4)*b(5,3))-b(2,3)*(b(3,2)*b(5,4)-b(3,4)*b(5,2))+b(2,4)*(b(3,2)*b(5,3)-b(3,3)*b(5,2))))
a(2,4) = &
(b(1,1)*(b(2,3)*(b(3,4)*b(5,5)-b(3,5)*b(5,4))-b(2,4)*(b(3,3)*b(5,5)-b(3,5)*b(5,3))+b(2,5)*(b(3,3)*b(5,4)-b(3,4)*b(5,3)))-b(1,3)* &
(b(2,1)*(b(3,4)*b(5,5)-b(3,5)*b(5,4))-b(2,4)*(b(3,1)*b(5,5)-b(3,5)*b(5,1))+b(2,5)*(b(3,1)*b(5,4)-b(3,4)*b(5,1)))+b(1,4)* &
(b(2,1)*(b(3,3)*b(5,5)-b(3,5)*b(5,3))-b(2,3)*(b(3,1)*b(5,5)-b(3,5)*b(5,1))+b(2,5)*(b(3,1)*b(5,3)-b(3,3)*b(5,1)))-b(1,5)* &
(b(2,1)*(b(3,3)*b(5,4)-b(3,4)*b(5,3))-b(2,3)*(b(3,1)*b(5,4)-b(3,4)*b(5,1))+b(2,4)*(b(3,1)*b(5,3)-b(3,3)*b(5,1))))
a(3,4) = &
(-b(1,1)*(b(2,2)*(b(3,4)*b(5,5)-b(3,5)*b(5,4))-b(2,4)*(b(3,2)*b(5,5)-b(3,5)*b(5,2))+b(2,5)*(b(3,2)*b(5,4)-b(3,4)*b(5,2)))+b(1,2)* &
(b(2,1)*(b(3,4)*b(5,5)-b(3,5)*b(5,4))-b(2,4)*(b(3,1)*b(5,5)-b(3,5)*b(5,1))+b(2,5)*(b(3,1)*b(5,4)-b(3,4)*b(5,1)))-b(1,4)* &
(b(2,1)*(b(3,2)*b(5,5)-b(3,5)*b(5,2))-b(2,2)*(b(3,1)*b(5,5)-b(3,5)*b(5,1))+b(2,5)*(b(3,1)*b(5,2)-b(3,2)*b(5,1)))+b(1,5)* &
(b(2,1)*(b(3,2)*b(5,4)-b(3,4)*b(5,2))-b(2,2)*(b(3,1)*b(5,4)-b(3,4)*b(5,1))+b(2,4)*(b(3,1)*b(5,2)-b(3,2)*b(5,1))))
a(4,4) = &
(b(1,1)*(b(2,2)*(b(3,3)*b(5,5)-b(3,5)*b(5,3))-b(2,3)*(b(3,2)*b(5,5)-b(3,5)*b(5,2))+b(2,5)*(b(3,2)*b(5,3)-b(3,3)*b(5,2)))-b(1,2)* &
(b(2,1)*(b(3,3)*b(5,5)-b(3,5)*b(5,3))-b(2,3)*(b(3,1)*b(5,5)-b(3,5)*b(5,1))+b(2,5)*(b(3,1)*b(5,3)-b(3,3)*b(5,1)))+b(1,3)* &
(b(2,1)*(b(3,2)*b(5,5)-b(3,5)*b(5,2))-b(2,2)*(b(3,1)*b(5,5)-b(3,5)*b(5,1))+b(2,5)*(b(3,1)*b(5,2)-b(3,2)*b(5,1)))-b(1,5)* &
(b(2,1)*(b(3,2)*b(5,3)-b(3,3)*b(5,2))-b(2,2)*(b(3,1)*b(5,3)-b(3,3)*b(5,1))+b(2,3)*(b(3,1)*b(5,2)-b(3,2)*b(5,1))))
a(5,4) = &
(-b(1,1)*(b(2,2)*(b(3,3)*b(5,4)-b(3,4)*b(5,3))-b(2,3)*(b(3,2)*b(5,4)-b(3,4)*b(5,2))+b(2,4)*(b(3,2)*b(5,3)-b(3,3)*b(5,2)))+b(1,2)* &
(b(2,1)*(b(3,3)*b(5,4)-b(3,4)*b(5,3))-b(2,3)*(b(3,1)*b(5,4)-b(3,4)*b(5,1))+b(2,4)*(b(3,1)*b(5,3)-b(3,3)*b(5,1)))-b(1,3)* &
(b(2,1)*(b(3,2)*b(5,4)-b(3,4)*b(5,2))-b(2,2)*(b(3,1)*b(5,4)-b(3,4)*b(5,1))+b(2,4)*(b(3,1)*b(5,2)-b(3,2)*b(5,1)))+b(1,4)* &
(b(2,1)*(b(3,2)*b(5,3)-b(3,3)*b(5,2))-b(2,2)*(b(3,1)*b(5,3)-b(3,3)*b(5,1))+b(2,3)*(b(3,1)*b(5,2)-b(3,2)*b(5,1))))
a(1,5) = &
(b(1,2)*(b(2,3)*(b(3,4)*b(4,5)-b(3,5)*b(4,4))-b(2,4)*(b(3,3)*b(4,5)-b(3,5)*b(4,3))+b(2,5)*(b(3,3)*b(4,4)-b(3,4)*b(4,3)))-b(1,3)* &
(b(2,2)*(b(3,4)*b(4,5)-b(3,5)*b(4,4))-b(2,4)*(b(3,2)*b(4,5)-b(3,5)*b(4,2))+b(2,5)*(b(3,2)*b(4,4)-b(3,4)*b(4,2)))+b(1,4)* &
(b(2,2)*(b(3,3)*b(4,5)-b(3,5)*b(4,3))-b(2,3)*(b(3,2)*b(4,5)-b(3,5)*b(4,2))+b(2,5)*(b(3,2)*b(4,3)-b(3,3)*b(4,2)))-b(1,5)* &
(b(2,2)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))-b(2,3)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))+b(2,4)*(b(3,2)*b(4,3)-b(3,3)*b(4,2))))
a(2,5) = &
(-b(1,1)*(b(2,3)*(b(3,4)*b(4,5)-b(3,5)*b(4,4))-b(2,4)*(b(3,3)*b(4,5)-b(3,5)*b(4,3))+b(2,5)*(b(3,3)*b(4,4)-b(3,4)*b(4,3)))+b(1,3)* &
(b(2,1)*(b(3,4)*b(4,5)-b(3,5)*b(4,4))-b(2,4)*(b(3,1)*b(4,5)-b(3,5)*b(4,1))+b(2,5)*(b(3,1)*b(4,4)-b(3,4)*b(4,1)))-b(1,4)* &
(b(2,1)*(b(3,3)*b(4,5)-b(3,5)*b(4,3))-b(2,3)*(b(3,1)*b(4,5)-b(3,5)*b(4,1))+b(2,5)*(b(3,1)*b(4,3)-b(3,3)*b(4,1)))+b(1,5)* &
(b(2,1)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))-b(2,3)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))+b(2,4)*(b(3,1)*b(4,3)-b(3,3)*b(4,1))))
a(3,5) = &
(b(1,1)*(b(2,2)*(b(3,4)*b(4,5)-b(3,5)*b(4,4))-b(2,4)*(b(3,2)*b(4,5)-b(3,5)*b(4,2))+b(2,5)*(b(3,2)*b(4,4)-b(3,4)*b(4,2)))-b(1,2)* &
(b(2,1)*(b(3,4)*b(4,5)-b(3,5)*b(4,4))-b(2,4)*(b(3,1)*b(4,5)-b(3,5)*b(4,1))+b(2,5)*(b(3,1)*b(4,4)-b(3,4)*b(4,1)))+b(1,4)* &
(b(2,1)*(b(3,2)*b(4,5)-b(3,5)*b(4,2))-b(2,2)*(b(3,1)*b(4,5)-b(3,5)*b(4,1))+b(2,5)*(b(3,1)*b(4,2)-b(3,2)*b(4,1)))-b(1,5)* &
(b(2,1)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))-b(2,2)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))+b(2,4)*(b(3,1)*b(4,2)-b(3,2)*b(4,1))))
a(4,5) = &
(-b(1,1)*(b(2,2)*(b(3,3)*b(4,5)-b(3,5)*b(4,3))-b(2,3)*(b(3,2)*b(4,5)-b(3,5)*b(4,2))+b(2,5)*(b(3,2)*b(4,3)-b(3,3)*b(4,2)))+b(1,2)* &
(b(2,1)*(b(3,3)*b(4,5)-b(3,5)*b(4,3))-b(2,3)*(b(3,1)*b(4,5)-b(3,5)*b(4,1))+b(2,5)*(b(3,1)*b(4,3)-b(3,3)*b(4,1)))-b(1,3)* &
(b(2,1)*(b(3,2)*b(4,5)-b(3,5)*b(4,2))-b(2,2)*(b(3,1)*b(4,5)-b(3,5)*b(4,1))+b(2,5)*(b(3,1)*b(4,2)-b(3,2)*b(4,1)))+b(1,5)* &
(b(2,1)*(b(3,2)*b(4,3)-b(3,3)*b(4,2))-b(2,2)*(b(3,1)*b(4,3)-b(3,3)*b(4,1))+b(2,3)*(b(3,1)*b(4,2)-b(3,2)*b(4,1))))
a(5,5) = &
(b(1,1)*(b(2,2)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))-b(2,3)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))+b(2,4)*(b(3,2)*b(4,3)-b(3,3)*b(4,2)))-b(1,2)* &
(b(2,1)*(b(3,3)*b(4,4)-b(3,4)*b(4,3))-b(2,3)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))+b(2,4)*(b(3,1)*b(4,3)-b(3,3)*b(4,1)))+b(1,3)* &
(b(2,1)*(b(3,2)*b(4,4)-b(3,4)*b(4,2))-b(2,2)*(b(3,1)*b(4,4)-b(3,4)*b(4,1))+b(2,4)*(b(3,1)*b(4,2)-b(3,2)*b(4,1)))-b(1,4)* &
(b(2,1)*(b(3,2)*b(4,3)-b(3,3)*b(4,2))-b(2,2)*(b(3,1)*b(4,3)-b(3,3)*b(4,1))+b(2,3)*(b(3,1)*b(4,2)-b(3,2)*b(4,1))))
end
subroutine invert_update(a,LDA,na,det_l,b)
implicit none
double precision :: a (LDA,na)
double precision :: b (LDA,na)
integer :: LDA
integer :: na
double precision :: det_l
double precision :: work(LDA*max(na,64))
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: work
integer :: inf
integer :: ipiv(LDA)
!DIR$ ATTRIBUTES ALIGN: $IRP_ALIGN :: ipiv
integer :: lwork
double precision :: f
integer :: i, j
double precision :: bold(LDA,na)
double precision :: ba(LDA,na)
integer :: k
ba = a
call dgetrf(na, na, ba, LDA, ipiv, inf )
det_l = 1.d0
j=0
!DIR$ VECTOR ALIGNED
do i=1,na
if (ipiv(i) /= i) then
j = j+1
endif
det_l = det_l*a(i,i)
enddo
if (iand(j,1) /= 0) then
det_l = -det_l
endif
do k=1,3
bold = b
call dgemm('N','N',na,na,na,1.d0,a,LDA,bold,LDA, &
0.d0, ba, LDA)
call dgemm('N','N',na,na,na,-1.d0,bold,LDA,ba,LDA, &
2.d0, b, LDA)
enddo
b = b*det_l
end

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double precision function qmc_ranf()
! L'Ecuyer, P. (1999) `Tables of maximally equidistributed combined LFSR
! generators', Math. of Comput., 68, 261-269.
implicit none
integer*8 :: b(2)
b(1) = ISHFT( IEOR( ISHFT(seed(1),1), seed(1)), -53)
b(2) = ISHFT( IAND(seed(1),-2_8), 10)
seed(1) = IEOR( b(2), b(1))
b(1) = ISHFT( IEOR( ISHFT(seed(2),24), seed(2)), -50)
b(2) = ISHFT( IAND(seed(2),-512_8), 5)
seed(2) = IEOR( b(2), b(1))
b(1) = ISHFT( IEOR( ISHFT(seed(3),3), seed(3)), -23)
b(2) = ISHFT( IAND(seed(3),-4096_8), 29)
seed(3) = IEOR( b(2), b(1))
b(1) = ISHFT( IEOR( ISHFT(seed(4),5), seed(4)), -24)
b(2) = ISHFT( IAND(seed(4),-131072_8), 23)
seed(4) = IEOR( b(2), b(1))
b(1) = ISHFT( IEOR( ISHFT(seed(5),3), seed(5)), -33)
b(2) = ISHFT( IAND(seed(5),-8388608_8), 8)
seed(5) = IEOR( b(2), b(1))
qmc_ranf = IEOR( IEOR( IEOR( IEOR(seed(1),seed(2)), seed(3)), &
seed(4)), seed(5)) * 5.4210108624275221D-20 + 0.5D0
ASSERT ( qmc_ranf >= 0.d0 )
ASSERT ( qmc_ranf <= 1.d0 )
end
subroutine ranf_array(isize,res)
implicit none
integer :: isize
double precision :: res(isize)
integer :: i
double precision :: qmc_ranf
do i=1,isize
res(i) = qmc_ranf()
enddo
end
BEGIN_PROVIDER [ integer*8, seed, (5) ]
implicit none
BEGIN_DOC
! Seeds data
! Initialized by init_random
END_DOC
integer :: iargc
integer*8 :: i,j
integer*4 :: clock(12)
double precision :: r
integer*8 :: pid8
read(current_PID,*) pid8
pid8 = iand( ishft(pid8, 32), pid8)
do i=1,12
clock(i) = i
enddo
call system_clock(count=clock(1))
call random_seed(put=clock)
do i=1,5
call random_number(r)
seed(i) = (r-0.5d0)*huge(1_8)
seed(i) = ieor( seed(i), pid8)
do j=1,16
seed(i) = ishft(seed(i),1)+1
enddo
enddo
END_PROVIDER
subroutine gauss_array(isize,res)
implicit none
include '../constants.F'
integer isize
double precision res(isize)
double precision u1(isize),u2(isize)
integer i
call ranf_array(isize,u1)
call ranf_array(isize,u2)
do i=1,isize
res(i)=sqrt(-2.d0*log(u1(i)))*cos(dtwo_pi*u2(i))
enddo
end
double precision function gauss()
implicit none
! include 'constants.F'
double precision :: qmc_ranf
! double precision :: u1,u2
! u1=qmc_ranf()
! u2=qmc_ranf()
! gauss=sqrt(-2.d0*dlog(u1))*cos(dfour_pi*u2)
double precision :: inverse_normal_cdf
gauss = inverse_normal_cdf(qmc_ranf())
end
double precision function inverse_normal_cdf(p)
implicit none
double precision, intent(in) :: p
double precision :: p_low,p_high
double precision :: a1,a2,a3,a4,a5,a6
double precision :: b1,b2,b3,b4,b5
double precision :: c1,c2,c3,c4,c5,c6
double precision :: d1,d2,d3,d4
double precision :: z,q,r
double precision :: qmc_ranf
a1=-39.6968302866538d0
a2=220.946098424521d0
a3=-275.928510446969d0
a4=138.357751867269d0
a5=-30.6647980661472d0
a6=2.50662827745924d0
b1=-54.4760987982241d0
b2=161.585836858041d0
b3=-155.698979859887d0
b4=66.8013118877197d0
b5=-13.2806815528857d0
c1=-0.00778489400243029d0
c2=-0.322396458041136d0
c3=-2.40075827716184d0
c4=-2.54973253934373d0
c5=4.37466414146497d0
c6=2.93816398269878d0
d1=0.00778469570904146d0
d2=0.32246712907004d0
d3=2.445134137143d0
d4=3.75440866190742d0
p_low=0.02425d0
p_high=1.d0-0.02425d0
if(p < p_low) then
q=dsqrt(-2.d0*dlog(p))
inverse_normal_cdf=(((((c1*q+c2)*q+c3)*q+c4)*q+c5)*q+c6)/((((d1*q+d2)*q+d3)*q+d4)*q+1.d0)
else if(p <= p_high) then
q=p-0.5d0
r=q*q
inverse_normal_cdf=(((((a1*r+a2)*r+a3)*r+a4)*r+a5)*r+a6)*q/(((((b1*r+b2)*r+b3)*r+b4)*r+b5)*r+1.d0)
else
q=dsqrt(-2.d0*dlog(max(tiny(1.d0),1.d0-p)))
inverse_normal_cdf=-(((((c1*q+c2)*q+c3)*q+c4)*q+c5)*q+c6)/((((d1*q+d2)*q+d3)*q+d4)*q+1)
endif
end

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BEGIN_TEMPLATE
subroutine insertion_$Xsort (x,iorder,isize)
implicit none
$type,intent(inout) :: x(isize)
integer,intent(inout) :: iorder(isize)
integer,intent(in) :: isize
$type :: xtmp
integer :: i, i0, j, jmax
do i=1,isize
xtmp = x(i)
i0 = iorder(i)
j = i-1
do j=i-1,1,-1
if ( x(j) > xtmp ) then
x(j+1) = x(j)
iorder(j+1) = iorder(j)
else
exit
endif
enddo
x(j+1) = xtmp
iorder(j+1) = i0
enddo
end subroutine insertion_$Xsort
subroutine heap_$Xsort(x,iorder,isize)
implicit none
$type,intent(inout) :: x(isize)
integer,intent(inout) :: iorder(isize)
integer,intent(in) :: isize
integer :: i, k, j, l, i0
$type :: xtemp
l = isize/2+1
k = isize
do while (.True.)
if (l>1) then
l=l-1
xtemp = x(l)
i0 = iorder(l)
else
xtemp = x(k)
i0 = iorder(k)
x(k) = x(1)
iorder(k) = iorder(1)
k = k-1
if (k == 1) then
x(1) = xtemp
iorder(1) = i0
exit
endif
endif
i=l
j = ishft(l,1)
do while (j<k)
if ( x(j) < x(j+1) ) then
j=j+1
endif
if (xtemp < x(j)) then
x(i) = x(j)
iorder(i) = iorder(j)
i = j
j = ishft(j,1)
else
j = k+1
endif
enddo
if (j==k) then
if (xtemp < x(j)) then
x(i) = x(j)
iorder(i) = iorder(j)
i = j
j = ishft(j,1)
else
j = k+1
endif
endif
x(i) = xtemp
iorder(i) = i0
enddo
end subroutine heap_$Xsort
subroutine $Xsort(x,iorder,isize)
implicit none
$type,intent(inout) :: x(isize)
integer,intent(inout) :: iorder(isize)
integer,intent(in) :: isize
if (isize < 32) then
call insertion_$Xsort(x,iorder,isize)
else
call heap_$Xsort(x,iorder,isize)
endif
end subroutine $Xsort
SUBST [ X, type ]
; real ;;
d ; double precision ;;
i ; integer ;;
END_TEMPLATE
BEGIN_TEMPLATE
subroutine $Xset_order(x,iorder,isize)
implicit none
integer :: isize
$type :: x(*), xtmp(isize)
integer :: iorder(*)
integer :: i
do i=1,isize
xtmp(i) = x(iorder(i))
enddo
do i=1,isize
x(i) = xtmp(i)
enddo
end
SUBST [ X, type ]
; real ;;
d ; double precision ;;
i ; integer ;;
l ; logical ;;
END_TEMPLATE

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module f77_zmq
include 'f77_zmq.h'
end module

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subroutine main_qmc
use f77_zmq
implicit none
is_worker = .True.
SOFT_TOUCH is_worker
call start_main_qmc()
end
subroutine start_main_qmc
use f77_zmq
implicit none
integer(ZMQ_PTR) :: msg
integer :: rc, v
integer*8 :: cpu0, count_rate, count_max
! Initialization
! --------------
call system_clock(cpu0, count_rate, count_max)
msg = f77_zmq_msg_new()
call zmq_register_worker(msg)
! One equilibration block
! -----------------------
call equilibration
! Run the QMC blocks
! ------------------
call run_qmc(cpu0)
! Clean exit
! ----------
call zmq_unregister_worker(msg)
rc = f77_zmq_msg_destroy(msg)
v = 0
rc = f77_zmq_setsockopt(zmq_socket_push,ZMQ_LINGER,v,4)
rc = f77_zmq_setsockopt(zmq_socket_running,ZMQ_LINGER,v,4)
rc = f77_zmq_setsockopt(zmq_to_dataserver_socket,ZMQ_LINGER,v,4)
rc = f77_zmq_close(zmq_socket_push)
rc = f77_zmq_close(zmq_socket_running)
rc = f77_zmq_close(zmq_to_dataserver_socket)
! rc = f77_zmq_ctx_destroy(zmq_context)
end
subroutine equilibration
PROVIDE E_loc_block_walk
end
subroutine run_qmc(cpu0)
use f77_zmq
implicit none
include '../types.F'
include '../deriv_var.F'
include '../deriv_ene.F'
integer*8 :: cpu0
integer :: isize, i, j, ierr
double precision :: min, max
real :: value
integer(ZMQ_PTR) :: msg
integer :: do_run, rc
integer :: block_id
integer*8 :: cpu1, count_rate, count_max
PROVIDE elec_num
msg = f77_zmq_msg_new()
call get_running(do_run)
block_id = 0
do while (do_run == t_Running)
block_id += 1
call accep_reset
TOUCH elec_coord
PROVIDE block_weight E_loc_block_walk
! Start by sending accept rate
real, external :: accep_rate
call zmq_send_header(msg,'accep',block_id)
value = accep_rate()
call zmq_send_real(msg, value, 1)
double precision :: v0, v1, v2, h
double precision :: d1v,d2v,d1e,d2e
if (save_data) then
call zmq_send_header(msg,'elec_coord',block_id)
call zmq_send_real(msg,elec_coord_full,size(elec_coord_full))
endif
BEGIN_SHELL [ /usr/bin/python ]
from properties import *
derivlist = map(lambda x: x[1], properties)
derivlist = filter(lambda x: x.startswith("d_var_"), derivlist)
td = """
do j=0,size($X_block_walk,1)-1,7
if ($X_block_walk(j+Pos_weight) == 0.d0) then
$X_block_walk(j+1) = 0.d0
$X_block_walk(j+2) = 0.d0
$X_block_walk(j+3) = 0.d0
$X_block_walk(j+4) = 0.d0
$X_block_walk(j+5) = 0.d0
$X_block_walk(j+6) = 0.d0
$X_block_walk(j+7) = 0.d0
cycle
endif
$X_block_walk(j+Pos_E_loc) = &
$X_block_walk(j+Pos_E_loc) / $X_block_walk(j+Pos_weight)
$X_block_walk(j+Pos_E_loc_2) = &
$X_block_walk(j+Pos_E_loc_2) / $X_block_walk(j+Pos_weight)
$X_block_walk(j+Neg_E_loc) = &
$X_block_walk(j+Neg_E_loc) / $X_block_walk(j+Neg_weight)
$X_block_walk(j+Neg_E_loc_2) = &
$X_block_walk(j+Neg_E_loc_2) / $X_block_walk(j+Neg_weight)
h = $X_block_walk(j+Delta)
v0 = E_loc_block_walk
v1 = $X_block_walk(j+Pos_E_loc)
v2 = $X_block_walk(j+Neg_E_loc)
d1e = 0.5d0*(v1-v2)/h
d2e = (v1+v2-v0-v0)/(h*h)
v0 = dabs(E_loc_2_block_walk - v0*v0)
v1 = dabs($X_block_walk(j+Pos_E_loc_2) - $X_block_walk(j+Pos_E_loc)**2)
v2 = dabs($X_block_walk(j+Neg_E_loc_2) - $X_block_walk(j+Neg_E_loc)**2)
d1v = 0.5d0*(v1-v2)/h
d2v = (v1+v2-v0-v0)/(h*h)
$X_block_walk(j+1) = d1e
$X_block_walk(j+2) = d2e
$X_block_walk(j+3) = d1v
$X_block_walk(j+4) = d2v
$X_block_walk(j+5) = 0.d0
$X_block_walk(j+6) = 0.d0
$X_block_walk(j+7) = 0.d0
enddo
"""
for p in properties:
t = """
if (calc_$X) then
"""
if p[2] == "":
t += """
call zmq_send_header(msg,'$X',block_id)
call zmq_send_scalar_prop(msg,block_weight,$X_block_walk)
$X_2_block_walk = dabs($X_2_block_walk - $X_block_walk*$X_block_walk)
call zmq_send_header(msg,'$X_qmcvar',block_id)
call zmq_send_scalar_prop(msg,block_weight,$X_2_block_walk)
"""
else:
if p[1] in derivlist:
t+= td
t += """
isize = size($X_block_walk)
call zmq_send_header(msg,'$X',block_id)
call zmq_send_array_prop(msg,block_weight,$X_block_walk,isize)
"""
t += """
! TODO : Min and Max are commented here
! call zmq_send_header(msg,'$X_min',block_id)
! call zmq_send_real(msg,$X_min)
! call zmq_send_header(msg,'$X_max',block_id)
! call zmq_send_real(msg,block_weight,$X_max)
endif
"""
print t.replace("$X",p[1])
END_SHELL
! Finish by sending CPU time
call system_clock(cpu1, count_rate, count_max)
value = real(cpu1-cpu0)/real(count_rate)
call zmq_send_header(msg,'cpu',block_id)
call zmq_send_real(msg, value, 1)
call get_running(do_run)
cpu0 = cpu1
enddo
99 continue
!
end

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use f77_zmq
! Addresses
! =========
BEGIN_PROVIDER [ character*(48), dataserver_address ]
implicit none
BEGIN_DOC
! Adderss of the data server
END_DOC
dataserver_address = trim(http_server)
integer :: i
do i=len(dataserver_address),1,-1
if ( dataserver_address(i:i) == ':') then
dataserver_address = trim(dataserver_address(1:i-1))
exit
endif
enddo
END_PROVIDER
BEGIN_PROVIDER [ integer, zmq_port_start ]
implicit none
BEGIN_DOC
! Starting port for ZMQ
END_DOC
zmq_port_start = -1
double precision :: qmc_ranf
integer :: i,l
character*(8) :: buffer
l = len(http_server)
do i=len(http_server),1,-1
if ( http_server(i:i) == ':') then
buffer = trim(http_server(i+1:l))
read(buffer, *) zmq_port_start
exit
endif
enddo
END_PROVIDER
function zmq_port(ishift)
implicit none
integer, intent(in) :: ishift
character*(8) :: zmq_port
write(zmq_port,'(I8)') zmq_port_start+ishift
zmq_port = adjustl(trim(zmq_port))
end
! Sockets
! =======
BEGIN_PROVIDER [ integer(ZMQ_PTR), zmq_context ]
implicit none
BEGIN_DOC
! Context for the ZeroMQ library
END_DOC
zmq_context = f77_zmq_ctx_new ()
END_PROVIDER
BEGIN_PROVIDER [ integer(ZMQ_PTR), zmq_to_dataserver_socket ]
implicit none
BEGIN_DOC
! Socket on which the dataserver replies
END_DOC
integer :: rc
zmq_to_dataserver_socket = f77_zmq_socket(zmq_context, ZMQ_REQ)
rc = f77_zmq_connect(zmq_to_dataserver_socket, trim(http_server))
if (rc /= 0) then
call abrt(irp_here, 'Unable to connect zmq_to_dataserver_socket')
endif
integer :: i
i=4
rc = f77_zmq_setsockopt(zmq_to_dataserver_socket, ZMQ_SNDTIMEO, 120000, i)
if (rc /= 0) then
call abrt(irp_here, 'Unable to set send timout in zmq_to_dataserver_socket')
endif
rc = f77_zmq_setsockopt(zmq_to_dataserver_socket, ZMQ_RCVTIMEO, 120000, i)
if (rc /= 0) then
call abrt(irp_here, 'Unable to set recv timout in zmq_to_dataserver_socket')
endif
call worker_log(irp_here,'REQ socket : '//trim(http_server))
END_PROVIDER
BEGIN_PROVIDER [ integer(ZMQ_PTR), zmq_socket_running ]
implicit none
BEGIN_DOC
! Socket on which the dataserver sends the running status
END_DOC
integer :: rc
character*(64) :: address
character*(8), external :: zmq_port
zmq_socket_running = f77_zmq_socket(zmq_context, ZMQ_SUB)
address = trim(dataserver_address)//':'//zmq_port(1)
rc = f77_zmq_connect(zmq_socket_running, trim(address))
if (rc /= 0) then
call abrt(irp_here, 'Unable to connect zmq_socket_running')
endif
rc = f77_zmq_setsockopt(zmq_socket_running,ZMQ_SUBSCRIBE,'',0)
call worker_log(irp_here,'Running socket : '//trim(address))
END_PROVIDER
BEGIN_PROVIDER [ integer(ZMQ_PTR), zmq_socket_push ]
implicit none
BEGIN_DOC
! Socket on which to push the results
END_DOC
integer :: rc
character*(64) :: address
character*(8), external :: zmq_port
zmq_socket_push = f77_zmq_socket(zmq_context, ZMQ_PUSH)
address = trim(dataserver_address)//':'//zmq_port(2)
rc = f77_zmq_connect(zmq_socket_push, trim(address))
if (rc /= 0) then
call abrt(irp_here, 'Unable to connect zmq_socket_push')
endif
call worker_log(irp_here,'Push socket : '//trim(address))
END_PROVIDER
BEGIN_PROVIDER [ integer(ZMQ_PTR), zmq_socket_log ]
implicit none
BEGIN_DOC
! Socket on which to send the log
END_DOC
integer :: rc
character*(64) :: address
character*(8), external :: zmq_port
zmq_socket_log = f77_zmq_socket(zmq_context, ZMQ_PUB)
address = trim(dataserver_address)//':'//zmq_port(3)
rc = f77_zmq_connect(zmq_socket_log, trim(address))
END_PROVIDER
subroutine worker_log(where_, message)
implicit none
character*(*), intent(in) :: where_
character*(*), intent(in) :: message
character*(512) :: buffer
integer :: rc
if (is_worker) then
write(buffer,'(A,X,A)') trim(hostname)//':'//trim(current_pid), &
trim(where_)//' : '//trim(message)
rc = f77_zmq_send(zmq_socket_log,buffer,len_trim(buffer),0)
endif
end

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use f77_zmq
subroutine get_elec_coord_full(elec_coord_full_out,lda)
implicit none
integer, intent(in) :: lda
real, intent(out) :: elec_coord_full_out(lda,3,walk_num)
integer :: rc
integer :: i,j,k,l
character*(16) :: n
rc = f77_zmq_send(zmq_to_dataserver_socket, 'get_walkers', 11, ZMQ_SNDMORE)
write(n,*) walk_num
n = trim(n)
rc = f77_zmq_send(zmq_to_dataserver_socket, n, len(n), 0)
call worker_log(irp_here, 'Requesting walkers')
integer(ZMQ_PTR) :: msg
character*(32) :: buffer
integer :: sze
msg = f77_zmq_msg_new()
sze = 0
do k=1,walk_num
do j=1,3
do i=1,elec_num+1
rc = f77_zmq_msg_init(msg)
rc = -1
do l=1,2*block_time
rc = f77_zmq_msg_recv(msg,zmq_to_dataserver_socket,ZMQ_NOBLOCK)
if (rc > 0) then
exit
endif
if (l==2*block_time) then
call abrt(irp_here, 'Unable to get walkers')
endif
call sleep(1)
enddo
sze += rc
rc = f77_zmq_msg_copy_from_data(msg, buffer)
rc = f77_zmq_msg_close(msg)
buffer = trim(adjustl(buffer))
read(buffer, '(F20.14)') elec_coord_full_out(i,j,k)
enddo
enddo
enddo
call worker_log(irp_here, 'Walkers received')
rc = f77_zmq_msg_destroy(msg)
end

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! Functions
! =========
subroutine zmq_register_worker(msg)
use f77_zmq
implicit none
BEGIN_DOC
! Register a new worker to the forwarder
END_DOC
integer(ZMQ_PTR) :: msg
integer :: i,rc
rc = f77_zmq_msg_init_size(msg,8)
rc = f77_zmq_msg_copy_to_data(msg, 'register',8)
rc = f77_zmq_msg_send(msg,zmq_to_dataserver_socket,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
character*(64) :: buffer
rc = f77_zmq_msg_init_size(msg,64)
write(buffer,'(A)') trim(hostname)
buffer = adjustl(trim(buffer))
rc = f77_zmq_msg_copy_to_data(msg, buffer, len(buffer))
rc = f77_zmq_msg_send(msg,zmq_to_dataserver_socket,ZMQ_SNDMORE)
if (rc == -1) then
call abrt(irp_here, 'Unable to send register message (1)')
endif
rc = f77_zmq_msg_close(msg)
call worker_log(irp_here, 'Registering')
rc = f77_zmq_msg_init_size(msg,8)
rc = f77_zmq_msg_copy_to_data(msg, current_PID, 8)
rc = f77_zmq_msg_send(msg,zmq_to_dataserver_socket,0)
if (rc == -1) then
call abrt(irp_here, 'Unable to send register message (2)')
endif
rc = f77_zmq_msg_close(msg)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, 32, 0)
if (buffer(1:2)/='OK') then
call abrt(irp_here, 'Register failed '//trim(http_server))
endif
call worker_log(irp_here, 'Registered')
end
subroutine zmq_unregister_worker(msg)
use f77_zmq
implicit none
BEGIN_DOC
! Unregister a new worker to the forwarder
END_DOC
integer(ZMQ_PTR) :: msg
integer :: i,rc
call worker_log(irp_here, 'Unregistering')
rc = f77_zmq_msg_init_size(msg,10)
rc = f77_zmq_msg_copy_to_data(msg, 'unregister',10)
rc = f77_zmq_msg_send(msg,zmq_to_dataserver_socket,ZMQ_SNDMORE)
if (rc == -1) then
call abrt(irp_here, 'Unable to send unregister message (1)')
endif
rc = f77_zmq_msg_close(msg)
character*(64) :: buffer
rc = f77_zmq_msg_init_size(msg,64)
write(buffer,'(A)') trim(hostname)
buffer = adjustl(trim(buffer))
rc = f77_zmq_msg_copy_to_data(msg, buffer, len(buffer))
rc = f77_zmq_msg_send(msg,zmq_to_dataserver_socket,ZMQ_SNDMORE)
if (rc == -1) then
call abrt(irp_here, 'Unable to send unregister message (2)')
endif
rc = f77_zmq_msg_close(msg)
rc = f77_zmq_msg_init_size(msg,8)
rc = f77_zmq_msg_copy_to_data(msg, current_PID, 8)
rc = f77_zmq_msg_send(msg,zmq_to_dataserver_socket,0)
if (rc == -1) then
call abrt(irp_here, 'Unable to send unregister message (3)')
endif
rc = f77_zmq_msg_close(msg)
! Timeout 15 seconds
rc = -1
do i=1,15
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, 32, ZMQ_NOBLOCK)
if (rc == 2) then
call worker_log(irp_here, 'Unregistered')
return
endif
call worker_log(irp_here, 'Unregister failed. Retrying')
call sleep(1)
enddo
call abrt(irp_here, 'Unregister failed')
end
subroutine zmq_send_header(msg,header,block_id)
use f77_zmq
implicit none
BEGIN_DOC
! Receive the header of the multi-part message
END_DOC
integer(ZMQ_PTR), intent(in) :: msg
character*(*), intent(in) :: header
integer, intent(in) :: block_id
integer :: rc, size
character*(16) :: pid_str
size = len(trim(header))
rc = f77_zmq_msg_init_size(msg,size)
rc = f77_zmq_msg_copy_to_data(msg, header,size)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
character*(64) :: buffer
rc = f77_zmq_msg_init_size(msg,64)
write(buffer,'(A)') trim(hostname)
buffer = adjustl(trim(buffer))
rc = f77_zmq_msg_copy_to_data(msg, buffer, len(buffer))
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
call worker_log(irp_here, header)
rc = f77_zmq_msg_init_size(msg,8)
rc = f77_zmq_msg_copy_to_data(msg, current_PID, 8)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
rc = f77_zmq_msg_init_size(msg,8)
write(buffer,'(I8)') block_id
buffer = adjustl(trim(buffer))
rc = f77_zmq_msg_copy_to_data(msg, buffer, 8)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
end
subroutine zmq_send_scalar_prop(msg,weight,value)
use f77_zmq
implicit none
BEGIN_DOC
! Send a double precision average over the trajectory
END_DOC
integer(ZMQ_PTR) :: msg
double precision :: weight, value
integer :: rc,sze
character*(32) :: buffer
write(buffer,'(E32.16)') weight
buffer = adjustl(trim(buffer))
sze = len(buffer)
rc = f77_zmq_msg_init_size(msg,len(buffer))
rc = f77_zmq_msg_copy_to_data(msg, buffer,sze)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
write(buffer,'(E32.16)') value
buffer = adjustl(trim(buffer))
rc = f77_zmq_msg_init_size(msg,len(buffer))
rc = f77_zmq_msg_copy_to_data(msg, buffer,len(buffer))
rc = f77_zmq_msg_send(msg,zmq_socket_push,0)
rc = f77_zmq_msg_close(msg)
call worker_log(irp_here,'')
end
subroutine zmq_send_array_prop(msg,weight,value,isize)
use f77_zmq
implicit none
BEGIN_DOC
! Send a double precision average over the trajectory
END_DOC
integer(ZMQ_PTR) :: msg
integer :: isize
double precision :: weight, value(isize)
integer :: rc,i,l, sze
character*(32) :: buffer
write(buffer,'(I8)') isize
buffer = adjustl(trim(buffer))
l = len(buffer)
rc = f77_zmq_msg_init_size(msg,l)
rc = f77_zmq_msg_copy_to_data(msg, buffer,l)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
sze = l
write(buffer,'(E32.16)') weight
buffer = adjustl(trim(buffer))
l = len(buffer)
rc = f77_zmq_msg_init_size(msg,l)
rc = f77_zmq_msg_copy_to_data(msg, buffer,l)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
sze += l
do i=1,isize
write(buffer,'(E32.16)') value(i)
buffer = adjustl(trim(buffer))
l = len(buffer)
sze += l
rc = f77_zmq_msg_init_size(msg,l)
rc = f77_zmq_msg_copy_to_data(msg, buffer,l)
if (i < isize) then
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
else
rc = f77_zmq_msg_send(msg,zmq_socket_push,0)
endif
rc = f77_zmq_msg_close(msg)
enddo
call worker_log(irp_here,'')
end
subroutine zmq_send_info(msg,message)
implicit none
BEGIN_DOC
! Send an info message to the forwarder
END_DOC
integer(ZMQ_PTR) :: msg
character*(64) :: message
integer :: rc
integer :: isize
isize = len(trim(message))
rc = f77_zmq_msg_init_size(msg,isize)
rc = f77_zmq_msg_copy_to_data(msg, trim(message),isize)
rc = f77_zmq_msg_send(msg,zmq_socket_push,0)
rc = f77_zmq_msg_close(msg)
call worker_log(irp_here, message)
end
subroutine zmq_send_int(msg,value,isize)
use f77_zmq
implicit none
BEGIN_DOC
! Send an integer array of size n to the forwarder
END_DOC
integer(ZMQ_PTR) :: msg
integer :: isize
integer :: value(isize)
integer :: rc,i,l, sze
character*(32) :: buffer
write(buffer,'(I8)') isize
buffer = adjustl(trim(buffer))
l = len(buffer)
rc = f77_zmq_msg_init_size(msg,l)
rc = f77_zmq_msg_copy_to_data(msg, buffer,l)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
sze = l
do i=1,isize
write(buffer,'(I16)') value(i)
buffer = adjustl(trim(buffer))
l = len(buffer)
sze += l
rc = f77_zmq_msg_init_size(msg,l)
rc = f77_zmq_msg_copy_to_data(msg, buffer,l)
if (i < isize) then
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
else
rc = f77_zmq_msg_send(msg,zmq_socket_push,0)
endif
rc = f77_zmq_msg_close(msg)
enddo
call worker_log(irp_here,'')
end
subroutine zmq_send_real(msg,value,isize)
use f77_zmq
implicit none
BEGIN_DOC
! Send a real array of size n to the forwarder
END_DOC
integer(ZMQ_PTR) :: msg
integer :: isize
real :: value(isize)
integer :: rc,i,l, sze
character*(32) :: buffer
write(buffer,'(I8)') isize
buffer = adjustl(trim(buffer))
l = len(buffer)
rc = f77_zmq_msg_init_size(msg,l)
rc = f77_zmq_msg_copy_to_data(msg, buffer,l)
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
rc = f77_zmq_msg_close(msg)
sze = l
do i=1,isize
write(buffer,'(E32.16)') value(i)
buffer = adjustl(trim(buffer))
l = len(buffer)
sze += l
rc = f77_zmq_msg_init_size(msg,l)
rc = f77_zmq_msg_copy_to_data(msg, buffer,l)
if (i < isize) then
rc = f77_zmq_msg_send(msg,zmq_socket_push,ZMQ_SNDMORE)
else
rc = f77_zmq_msg_send(msg,zmq_socket_push,0)
endif
rc = f77_zmq_msg_close(msg)
enddo
call worker_log(irp_here,'')
end
subroutine get_running(do_run)
use f77_zmq
implicit none
include '../types.F'
BEGIN_DOC
! Fetches the 'do_run' information
END_DOC
integer :: do_run
integer :: rc, timeout
character*(16) :: buffer
integer(ZMQ_PTR), save :: pollitem = 0_ZMQ_PTR
if (.not.is_worker) then
do_run = t_Running
return
else
timeout = 5 ! seconds
! Polling items
! -------------
if (pollitem == 0_ZMQ_PTR) then
pollitem = f77_zmq_pollitem_new(1)
rc = f77_zmq_pollitem_set_socket(pollitem,1,zmq_socket_running)
rc = f77_zmq_pollitem_set_events(pollitem,1,ZMQ_POLLIN)
endif
! Check for disconnected forwarder after timeout
! ----------------------------------------------
buffer = 'Stopped'
do while (timeout > 0)
rc = f77_zmq_poll(pollitem, 1, 100_8)
if (iand(f77_zmq_pollitem_revents(pollitem,1), ZMQ_POLLIN) /= 0) then
exit
endif
timeout = timeout-1
call sleep(1)
enddo
! Empty the queue to get only the last value
! ------------------------------------------
do
rc = f77_zmq_poll(pollitem, 1, 0)
if (iand(f77_zmq_pollitem_revents(pollitem,1), ZMQ_POLLIN) == 0) then
exit
endif
rc = f77_zmq_recv(zmq_socket_running, buffer, 16, 0)
enddo
if (buffer == 'Running') then
do_run = t_Running
else if (buffer == 'Queued') then
do_run = t_Running
else
do_run = t_Stopped
endif
call worker_log(irp_here,buffer)
endif
end

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subroutine zmq_ezfio_has(cmd_in,exists)
use f77_zmq
implicit none
character*(*) :: cmd_in
logical, intent(out) :: exists
BEGIN_DOC
! ezfio_has through a ZMQ connexion
END_DOC
integer :: rc
character*(128) :: cmd
cmd = 'has_'//cmd_in
rc = f77_zmq_send(zmq_to_dataserver_socket, 'Ezfio', 5, ZMQ_SNDMORE)
if (rc /= 5) then
print *, irp_here, rc
stop 1
endif
rc = f77_zmq_send(zmq_to_dataserver_socket, cmd, len_trim(cmd), 0)
if (rc < 0) then
print *, irp_here, rc
stop 2
endif
character(len=8) :: buffer
integer :: buffer_size
character*(4) :: buffer_size_char
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer_size_char, &
len(buffer_size_char), ZMQ_SNDMORE)
read(buffer_size_char(1:rc),*) buffer_size
logical :: w
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, buffer_size, 0)
read( buffer(1:rc), *) w
exists = w
end
subroutine zmq_ezfio_get_logical(cmd_in,w,d)
implicit none
use f77_zmq
BEGIN_DOC
! Fetch a logical variable in EZFIO using ZMQ
END_DOC
integer :: d
logical :: w(d)
character*(*) :: cmd_in
character*(128) :: cmd
character(len=:), allocatable :: buffer
integer :: buffer_size
character*(20) :: buffer_size_char
integer :: rc
cmd = 'get_'//cmd_in
rc = f77_zmq_send(zmq_to_dataserver_socket, 'Ezfio', 5, ZMQ_SNDMORE)
rc = f77_zmq_send(zmq_to_dataserver_socket, cmd, len_trim(cmd), 0)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer_size_char, len(buffer_size_char), ZMQ_SNDMORE)
read(buffer_size_char(1:rc),*) buffer_size
allocate (character(len=buffer_size) :: buffer)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, buffer_size, 0)
read( buffer(1:rc), *) w(1:d)
deallocate(buffer)
end
subroutine zmq_ezfio_get_double_precision(cmd_in,w,d)
implicit none
use f77_zmq
BEGIN_DOC
! Fetch a double precision variable
END_DOC
integer :: d
double precision :: w(d)
character*(*) :: cmd_in
character*(128) :: cmd
character(len=:), allocatable :: buffer
integer :: buffer_size
character*(20) :: buffer_size_char
integer :: rc
cmd = 'get_'//cmd_in
rc = f77_zmq_send(zmq_to_dataserver_socket, 'Ezfio', 5, ZMQ_SNDMORE)
rc = f77_zmq_send(zmq_to_dataserver_socket, cmd, len_trim(cmd), 0)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer_size_char, len(buffer_size_char), ZMQ_SNDMORE)
read(buffer_size_char(1:rc),*) buffer_size
allocate (character(len=buffer_size) :: buffer)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, buffer_size, 0)
read( buffer(1:rc), *) w(1:d)
deallocate(buffer)
end
subroutine zmq_ezfio_get_integer(cmd_in,w,d)
implicit none
use f77_zmq
BEGIN_DOC
! Fetch an integer variable
END_DOC
integer :: d
integer :: w(d)
character*(*) :: cmd_in
character*(128) :: cmd
character(len=:), allocatable :: buffer
integer :: buffer_size
character*(20) :: buffer_size_char
integer :: rc
cmd = 'get_'//cmd_in
rc = f77_zmq_send(zmq_to_dataserver_socket, 'Ezfio', 5, ZMQ_SNDMORE)
rc = f77_zmq_send(zmq_to_dataserver_socket, cmd, len_trim(cmd), 0)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer_size_char, len(buffer_size_char), ZMQ_SNDMORE)
read(buffer_size_char(1:rc),*) buffer_size
allocate (character(len=buffer_size) :: buffer)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, buffer_size, 0)
read( buffer(1:rc), *) w(1:d)
deallocate(buffer)
end
subroutine zmq_ezfio_get_integer8(cmd_in,w,d)
implicit none
use f77_zmq
BEGIN_DOC
! Fetch an integer*8 variable
END_DOC
integer :: d
integer*8 :: w(d)
character*(*) :: cmd_in
character*(128) :: cmd
character(len=:), allocatable :: buffer
integer :: buffer_size
character*(20) :: buffer_size_char
integer :: rc
cmd = 'get_'//cmd_in
rc = f77_zmq_send(zmq_to_dataserver_socket, 'Ezfio', 5, ZMQ_SNDMORE)
rc = f77_zmq_send(zmq_to_dataserver_socket, cmd, len_trim(cmd), 0)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer_size_char, len(buffer_size_char), ZMQ_SNDMORE)
read(buffer_size_char(1:rc),*) buffer_size
allocate (character(len=buffer_size) :: buffer)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, buffer_size, 0)
read( buffer(1:rc), *) w(1:d)
deallocate(buffer)
end
subroutine zmq_ezfio_get_real(cmd_in,w,d)
implicit none
use f77_zmq
BEGIN_DOC
! Fetch a real variable
END_DOC
integer :: rc
integer :: d
real :: w(d)
character*(*) :: cmd_in
character*(128) :: cmd
character(len=:), allocatable :: buffer
integer :: buffer_size
character*(20) :: buffer_size_char
cmd = 'get_'//cmd_in
rc = f77_zmq_send(zmq_to_dataserver_socket, 'Ezfio', 5, ZMQ_SNDMORE)
rc = f77_zmq_send(zmq_to_dataserver_socket, cmd, len_trim(cmd), 0)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer_size_char, len(buffer_size_char), ZMQ_SNDMORE)
read(buffer_size_char(1:rc),*) buffer_size
allocate (character(len=buffer_size) :: buffer)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, buffer_size, 0)
read( buffer(1:rc), *) w(1:d)
deallocate(buffer)
end
subroutine zmq_ezfio_get_character(cmd_in,w,d)
implicit none
use f77_zmq
BEGIN_DOC
! Fetch a text variable
END_DOC
integer :: rc
integer :: d
character*(*) :: w
character*(*) :: cmd_in
character*(128) :: cmd
character(len=:), allocatable :: buffer
integer :: buffer_size
character*(20) :: buffer_size_char
cmd = 'get_'//cmd_in
rc = f77_zmq_send(zmq_to_dataserver_socket, 'Ezfio', 5, ZMQ_SNDMORE)
rc = f77_zmq_send(zmq_to_dataserver_socket, cmd, len_trim(cmd), 0)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer_size_char, len(buffer_size_char), ZMQ_SNDMORE)
read(buffer_size_char(1:rc),*) buffer_size
allocate (character(len=buffer_size) :: buffer)
rc = f77_zmq_recv(zmq_to_dataserver_socket, buffer, buffer_size, 0)
read( buffer(1:rc), '(A)') w
deallocate(buffer)
end