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Antoine Cyril David Hoffmann
Gyacomo
Commits
6b4a82ec
Commit
6b4a82ec
authored
2 years ago
by
Antoine Cyril David Hoffmann
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EM effects and gradients renaming
parent
ce66464e
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src/numerics_mod.F90
+29
-30
29 additions, 30 deletions
src/numerics_mod.F90
with
29 additions
and
30 deletions
src/numerics_mod.F90
+
29
−
30
View file @
6b4a82ec
...
...
@@ -138,14 +138,12 @@ SUBROUTINE evaluate_poisson_op
END
DO
!!!!!!!!!!!!! Electron contribution
pol_e
=
0._dp
! Kinetic model
IF
(
KIN_E
)
THEN
! loop over n only if the max polynomial degree
DO
ine
=
1
,
jmaxe
+1
! ine = n+1
pol_e
=
pol_e
+
qe2_taue
*
kernel_e
(
ine
,
iky
,
ikx
,
iz
,
0
)
**
2
! ... sum recursively ...
END
DO
! Adiabatic model
ELSE
IF
(
KIN_E
)
THEN
! Kinetic model
! loop over n only if the max polynomial degree
DO
ine
=
1
,
jmaxe
+1
! ine = n+1
pol_e
=
pol_e
+
qe2_taue
*
kernel_e
(
ine
,
iky
,
ikx
,
iz
,
0
)
**
2
! ... sum recursively ...
END
DO
ELSE
! Adiabatic model
pol_e
=
qe2_taue
-
1._dp
ENDIF
inv_poisson_op
(
iky
,
ikx
,
iz
)
=
1._dp
/(
qe2_taue
+
qi2_taui
-
pol_i
-
pol_e
)
...
...
@@ -166,6 +164,7 @@ SUBROUTINE evaluate_ampere_op
USE
array
,
Only
:
kernel_e
,
kernel_i
,
inv_ampere_op
USE
grid
USE
model
,
ONLY
:
tau_e
,
tau_i
,
q_e
,
q_i
,
KIN_E
,
beta
USE
geometry
,
ONLY
:
hatB
IMPLICIT
NONE
REAL
(
dp
)
::
pol_i
,
pol_e
,
kperp2
! (Z_a^2/tau_a (1-sum_n kernel_na^2))
INTEGER
::
ini
,
ine
...
...
@@ -182,20 +181,20 @@ SUBROUTINE evaluate_ampere_op
inv_ampere_op
(
iky
,
ikx
,
iz
)
=
0._dp
ELSE
!!!!!!!!!!!!!!!!! Ion contribution
! loop over n only if the max polynomial degree
pol_i
=
0._dp
! loop over n only up to the max polynomial degree
DO
ini
=
1
,
jmaxi
+1
pol_i
=
pol_i
+
kernel_i
(
ini
,
iky
,
ikx
,
iz
,
0
)
**
2
! ... sum recursively ...
END
DO
pol_i
=
q_i
**
2
/(
sigma_i
**
2
)
*
pol_i
!!!!!!!!!!!!! Electron contribution
pol_e
=
0._dp
! loop over n only
if
the max polynomial degree
! loop over n only
up to
the max polynomial degree
DO
ine
=
1
,
jmaxe
+1
! ine = n+1
pol_e
=
pol_e
+
kernel_e
(
ine
,
iky
,
ikx
,
iz
,
0
)
**
2
! ... sum recursively ...
END
DO
pol_e
=
q_e
**
2
/(
sigma_e
**
2
)
*
pol_e
inv_ampere_op
(
iky
,
ikx
,
iz
)
=
1._dp
/(
2._dp
*
kperp2
+
beta
*
(
pol_i
+
pol_e
))
inv_ampere_op
(
iky
,
ikx
,
iz
)
=
1._dp
/(
2._dp
*
kperp2
*
hatB
(
iz
,
0
)
**
2
+
beta
*
(
pol_i
+
pol_e
))
ENDIF
END
DO
zloop
END
DO
kyloop
...
...
@@ -208,7 +207,7 @@ END SUBROUTINE evaluate_ampere_op
SUBROUTINE
compute_lin_coeff
USE
array
USE
model
,
ONLY
:
taue_qe
,
taui_qi
,
sqrtTaue_qe
,
sqrtTaui_qi
,
&
k_T
,
eta
_T
,
k_N
,
eta
_N
,
CurvB
,
GradB
,
KIN_E
,&
k_T
e
,
k
_T
i
,
k_N
e
,
k
_N
i
,
CurvB
,
GradB
,
KIN_E
,&
tau_e
,
tau_i
,
sigma_e
,
sigma_i
USE
prec_const
USE
grid
,
ONLY
:
parray_e
,
parray_i
,
jarray_e
,
jarray_i
,
&
...
...
@@ -305,11 +304,11 @@ SUBROUTINE compute_lin_coeff
j_dp
=
REAL
(
j_int
,
dp
)
! REALof Laguerre degree
!! Electrostatic potential pj terms
IF
(
p_int
.EQ.
0
)
THEN
! kronecker p0
xphij_e
(
ip
,
ij
)
=+
eta_N
*
k_N
+
2.
*
j_dp
*
eta_T
*
k_T
xphijp1_e
(
ip
,
ij
)
=-
eta_T
*
k_T
*
(
j_dp
+1._dp
)
xphijm1_e
(
ip
,
ij
)
=-
eta_T
*
k_T
*
j_dp
xphij_e
(
ip
,
ij
)
=
+
k_N
e
+
2.
*
j_dp
*
k_T
e
xphijp1_e
(
ip
,
ij
)
=
-
k_T
e
*
(
j_dp
+1._dp
)
xphijm1_e
(
ip
,
ij
)
=
-
k_T
e
*
j_dp
ELSE
IF
(
p_int
.EQ.
2
)
THEN
! kronecker p2
xphij_e
(
ip
,
ij
)
=+
eta_T
*
k_T
/
SQRT2
xphij_e
(
ip
,
ij
)
=
+
k_T
e
/
SQRT2
xphijp1_e
(
ip
,
ij
)
=
0._dp
;
xphijm1_e
(
ip
,
ij
)
=
0._dp
;
ELSE
xphij_e
(
ip
,
ij
)
=
0._dp
;
xphijp1_e
(
ip
,
ij
)
=
0._dp
...
...
@@ -325,11 +324,11 @@ SUBROUTINE compute_lin_coeff
j_dp
=
REAL
(
j_int
,
dp
)
! REALof Laguerre degree
!! Electrostatic potential pj terms
IF
(
p_int
.EQ.
0
)
THEN
! kronecker p0
xphij_i
(
ip
,
ij
)
=+
k_N
+
2._dp
*
j_dp
*
k_T
xphijp1_i
(
ip
,
ij
)
=-
k_T
*
(
j_dp
+1._dp
)
xphijm1_i
(
ip
,
ij
)
=-
k_T
*
j_dp
xphij_i
(
ip
,
ij
)
=
+
k_N
i
+
2._dp
*
j_dp
*
k_T
i
xphijp1_i
(
ip
,
ij
)
=
-
k_T
i
*
(
j_dp
+1._dp
)
xphijm1_i
(
ip
,
ij
)
=
-
k_T
i
*
j_dp
ELSE
IF
(
p_int
.EQ.
2
)
THEN
! kronecker p2
xphij_i
(
ip
,
ij
)
=+
k_T
/
SQRT2
xphij_i
(
ip
,
ij
)
=
+
k_T
i
/
SQRT2
xphijp1_i
(
ip
,
ij
)
=
0._dp
;
xphijm1_i
(
ip
,
ij
)
=
0._dp
;
ELSE
xphij_i
(
ip
,
ij
)
=
0._dp
;
xphijp1_i
(
ip
,
ij
)
=
0._dp
...
...
@@ -347,14 +346,14 @@ SUBROUTINE compute_lin_coeff
j_dp
=
REAL
(
j_int
,
dp
)
! REALof Laguerre degree
!! Electrostatic potential pj terms
IF
(
p_int
.EQ.
1
)
THEN
! kronecker p1
xpsij_e
(
ip
,
ij
)
=+
(
eta_N
*
k_N
+
(
2._dp
*
j_dp
+1._dp
)
*
eta_T
*
k_T
)
*
SQRT
(
tau_e
)/
sigma_e
xpsijp1_e
(
ip
,
ij
)
=-
eta_T
*
k_T
*
(
j_dp
+1._dp
)
*
SQRT
(
tau_e
)/
sigma_e
xpsijm1_e
(
ip
,
ij
)
=-
eta_T
*
k_T
*
j_dp
*
SQRT
(
tau_e
)/
sigma_e
xpsij_e
(
ip
,
ij
)
=
+
(
k_N
e
+
(
2._dp
*
j_dp
+1._dp
)
*
k_T
e
)
*
SQRT
(
tau_e
)/
sigma_e
xpsijp1_e
(
ip
,
ij
)
=
-
k_T
e
*
(
j_dp
+1._dp
)
*
SQRT
(
tau_e
)/
sigma_e
xpsijm1_e
(
ip
,
ij
)
=
-
k_T
e
*
j_dp
*
SQRT
(
tau_e
)/
sigma_e
ELSE
IF
(
p_int
.EQ.
3
)
THEN
! kronecker p3
xpsij_e
(
ip
,
ij
)
=+
eta_T
*
k_T
*
SQRT3
/
SQRT2
*
SQRT
(
tau_e
)/
sigma_e
xpsij_e
(
ip
,
ij
)
=
+
k_T
e
*
SQRT3
/
SQRT2
*
SQRT
(
tau_e
)/
sigma_e
xpsijp1_e
(
ip
,
ij
)
=
0._dp
;
xpsijm1_e
(
ip
,
ij
)
=
0._dp
;
ELSE
xpsij_e
(
ip
,
ij
)
=
0._dp
;
xpsijp1_e
(
ip
,
ij
)
=
0._dp
xpsij_e
(
ip
,
ij
)
=
0._dp
;
xpsijp1_e
(
ip
,
ij
)
=
0._dp
xpsijm1_e
(
ip
,
ij
)
=
0._dp
;
ENDIF
ENDDO
...
...
@@ -367,14 +366,14 @@ SUBROUTINE compute_lin_coeff
j_dp
=
REAL
(
j_int
,
dp
)
! REALof Laguerre degree
!! Electrostatic potential pj terms
IF
(
p_int
.EQ.
1
)
THEN
! kronecker p1
xpsij_i
(
ip
,
ij
)
=+
(
k_N
+
(
2._dp
*
j_dp
+1._dp
)
*
k_T
)
*
SQRT
(
tau_i
)/
sigma_i
xpsijp1_i
(
ip
,
ij
)
=-
k_T
*
(
j_dp
+1._dp
)
*
SQRT
(
tau_i
)/
sigma_i
xpsijm1_i
(
ip
,
ij
)
=-
k_T
*
j_dp
*
SQRT
(
tau_i
)/
sigma_i
xpsij_i
(
ip
,
ij
)
=
+
(
k_N
i
+
(
2._dp
*
j_dp
+1._dp
)
*
k_T
i
)
*
SQRT
(
tau_i
)/
sigma_i
xpsijp1_i
(
ip
,
ij
)
=
-
k_T
i
*
(
j_dp
+1._dp
)
*
SQRT
(
tau_i
)/
sigma_i
xpsijm1_i
(
ip
,
ij
)
=
-
k_T
i
*
j_dp
*
SQRT
(
tau_i
)/
sigma_i
ELSE
IF
(
p_int
.EQ.
3
)
THEN
! kronecker p3
xpsij_i
(
ip
,
ij
)
=+
k_T
*
SQRT3
/
SQRT2
*
SQRT
(
tau_i
)/
sigma_i
xpsij_i
(
ip
,
ij
)
=
+
k_T
i
*
SQRT3
/
SQRT2
*
SQRT
(
tau_i
)/
sigma_i
xpsijp1_i
(
ip
,
ij
)
=
0._dp
;
xpsijm1_i
(
ip
,
ij
)
=
0._dp
;
ELSE
xpsij_i
(
ip
,
ij
)
=
0._dp
;
xpsijp1_i
(
ip
,
ij
)
=
0._dp
xpsij_i
(
ip
,
ij
)
=
0._dp
;
xpsijp1_i
(
ip
,
ij
)
=
0._dp
xpsijm1_i
(
ip
,
ij
)
=
0._dp
;
ENDIF
ENDDO
...
...
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