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SPC
gdat
Commits
73f02bb3
Commit
73f02bb3
authored
9 months ago
by
Antonia Frank
Browse files
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Add implementation and check for ASTAR file in Lac8D for NBI
parent
d3d59d95
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1 merge request
!137
Add quantities to ids for MRE
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1 changed file
matlab/TCV_IMAS/tcv_get_ids_core_sources.m
+102
-26
102 additions, 26 deletions
matlab/TCV_IMAS/tcv_get_ids_core_sources.m
with
102 additions
and
26 deletions
matlab/TCV_IMAS/tcv_get_ids_core_sources.m
+
102
−
26
View file @
73f02bb3
...
@@ -124,7 +124,7 @@ for ii = 1:bs_n_t
...
@@ -124,7 +124,7 @@ for ii = 1:bs_n_t
% globals
% globals
ids_core_sources
.
source
{
last_index
+
1
}
.
global_quantities
{
ii
}
.
time
=
bs_t_grid
(
ii
);
ids_core_sources
.
source
{
last_index
+
1
}
.
global_quantities
{
ii
}
.
time
=
bs_t_grid
(
ii
);
ids_core_sources
.
source
{
last_index
+
1
}
.
global_quantities
{
ii
}
.
current_parallel
=
integrated_jpar_0_tmp
(
end
);
ids_core_sources
.
source
{
last_index
+
1
}
.
global_quantities
{
ii
}
.
current_parallel
=
integrated_jpar_0_tmp
(
end
);
end
end
last_index
=
last_index
+
1
;
% add if statement to only increment if bs source has been added
last_index
=
last_index
+
1
;
% add if statement to only increment if bs source has been added
...
@@ -147,10 +147,10 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
...
@@ -147,10 +147,10 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
% find times of injected EC power to interpolate power & current densities
% find times of injected EC power to interpolate power & current densities
% on p_ec_injected tgrid
% on p_ec_injected tgrid
ec_powers_tgrid
=
powers_gdat
.
ec
.
t
;
%nt_ec_powers = numel(ec_powers_tgrid);
ec_powers_tgrid
=
powers_gdat
.
ec
.
t
;
%nt_ec_powers = numel(ec_powers_tgrid);
% find times where EC is on to define time grid with extra time slice just
% find times where EC is on to define time grid with extra time slice just
% before/after EC power and at start/end of shot
% before/after EC power and at start/end of shot
itime_ec
=
find
(
powers_gdat
.
ec
.
data
(:,
end
)
>
0
);
itime_ec
=
find
(
powers_gdat
.
ec
.
data
(:,
end
)
>
0
);
ec_tgrid_out
=
[
ohm_t_grid
(
1
),
ec_powers_tgrid
(
itime_ec
(
1
)
-
1
:
itime_ec
(
end
)
+
1
)
'
,
ohm_t_grid
(
end
)];
ec_tgrid_out
=
[
ohm_t_grid
(
1
),
ec_powers_tgrid
(
itime_ec
(
1
)
-
1
:
itime_ec
(
end
)
+
1
)
'
,
ohm_t_grid
(
end
)];
nt_ec_out
=
numel
(
ec_tgrid_out
);
nt_ec_out
=
numel
(
ec_tgrid_out
);
p_ec_injected
=
interpos
(
ec_powers_tgrid
,
powers_gdat
.
ec
.
data
(:,
end
),
ec_tgrid_out
);
p_ec_injected
=
interpos
(
ec_powers_tgrid
,
powers_gdat
.
ec
.
data
(:,
end
),
ec_tgrid_out
);
...
@@ -246,7 +246,7 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
...
@@ -246,7 +246,7 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
interp_norm_cd_integrated
(
irho
,
i_lau
,
3
:
end
-
2
)
=
interpos
(
ec_tgrid_toray
,
trace_cd_integrated
,
ec_tgrid_out
(
3
:
end
-
2
));
interp_norm_cd_integrated
(
irho
,
i_lau
,
3
:
end
-
2
)
=
interpos
(
ec_tgrid_toray
,
trace_cd_integrated
,
ec_tgrid_out
(
3
:
end
-
2
));
end
end
end
end
% interpolate the rho_pol & rho_tor on ec_powers_tgrid
% interpolate the rho_pol & rho_tor on ec_powers_tgrid
interp_rho_pol
=
zeros
(
n_rho
,
nt_ec_out
);
interp_rho_pol
=
zeros
(
n_rho
,
nt_ec_out
);
interp_rho_tor
=
zeros
(
n_rho
,
nt_ec_out
);
interp_rho_tor
=
zeros
(
n_rho
,
nt_ec_out
);
...
@@ -254,7 +254,7 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
...
@@ -254,7 +254,7 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
interp_rho_pol
(
irho
,
3
:
end
-
2
)
=
interpos
(
ec_tgrid_toray
,
rho_pol_norm
(
irho
,:),
ec_tgrid_out
(
3
:
end
-
2
));
interp_rho_pol
(
irho
,
3
:
end
-
2
)
=
interpos
(
ec_tgrid_toray
,
rho_pol_norm
(
irho
,:),
ec_tgrid_out
(
3
:
end
-
2
));
interp_rho_tor
(
irho
,
3
:
end
-
2
)
=
interpos
(
ec_tgrid_toray
,
rho_tor_norm
(
irho
,:),
ec_tgrid_out
(
3
:
end
-
2
));
interp_rho_tor
(
irho
,
3
:
end
-
2
)
=
interpos
(
ec_tgrid_toray
,
rho_tor_norm
(
irho
,:),
ec_tgrid_out
(
3
:
end
-
2
));
end
end
% fill rho_pol just outside of TORAY times(zero power) with the known profiles one time slice after/before
% fill rho_pol just outside of TORAY times(zero power) with the known profiles one time slice after/before
interp_rho_pol
(:,
2
)
=
interp_rho_pol
(:,
3
);
interp_rho_pol
(:,
end
-
1
)
=
interp_rho_pol
(:,
end
-
2
);
interp_rho_pol
(:,
2
)
=
interp_rho_pol
(:,
3
);
interp_rho_pol
(:,
end
-
1
)
=
interp_rho_pol
(:,
end
-
2
);
% normalised & interpolated profiles * p_ec_injected on interp_tgrid
% normalised & interpolated profiles * p_ec_injected on interp_tgrid
...
@@ -278,30 +278,30 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
...
@@ -278,30 +278,30 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
if
ii
~=
1
||
ii
~=
nt_ec_out
if
ii
~=
1
||
ii
~=
nt_ec_out
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
grid
.
rho_tor_norm
=
interp_rho_tor
(:,
ii
);
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
grid
.
rho_tor_norm
=
interp_rho_tor
(:,
ii
);
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
grid
.
rho_pol_norm
=
interp_rho_pol
(:,
ii
);
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
grid
.
rho_pol_norm
=
interp_rho_pol
(:,
ii
);
% power density
% power density
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
electrons
.
energy
=
...
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
electrons
.
energy
=
...
interp_p_dens
(:,
i_lau
,
ii
);
interp_p_dens
(:,
i_lau
,
ii
);
% integrated power density
% integrated power density
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
electrons
.
power_inside
=
...
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
electrons
.
power_inside
=
...
interp_p_integrated
(:,
i_lau
,
ii
);
interp_p_integrated
(:,
i_lau
,
ii
);
% current density
% current density
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
j_parallel
=
...
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
j_parallel
=
...
interp_cd_dens
(:,
i_lau
,
ii
);
interp_cd_dens
(:,
i_lau
,
ii
);
% integrated current density
% integrated current density
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
current_parallel_inside
=
...
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
profiles_1d
{
ii
}
.
current_parallel_inside
=
...
interp_cd_integrated
(:,
i_lau
,
ii
);
interp_cd_integrated
(:,
i_lau
,
ii
);
end
end
% globals
% globals
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
global_quantities
{
ii
}
.
time
=
ec_tgrid_out
(
ii
);
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
global_quantities
{
ii
}
.
time
=
ec_tgrid_out
(
ii
);
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
global_quantities
{
ii
}
.
power
=
...
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
global_quantities
{
ii
}
.
power
=
...
interp_p_integrated
(
end
,
i_lau
,
ii
);
interp_p_integrated
(
end
,
i_lau
,
ii
);
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
global_quantities
{
ii
}
.
current_parallel
=
...
ids_core_sources
.
source
{
last_index
+
i_lau
}
.
global_quantities
{
ii
}
.
current_parallel
=
...
interp_cd_integrated
(
end
,
i_lau
,
ii
);
interp_cd_integrated
(
end
,
i_lau
,
ii
);
end
end
end
end
%add empty sources for rest of un
s
used launchers
%add empty sources for rest of unused launchers
if
numel
(
ids_core_sources
.
source
)
-
last_index
~=
nb_launchers
if
numel
(
ids_core_sources
.
source
)
-
last_index
~=
nb_launchers
ids_core_sources
.
source
{
last_index
+
nb_launchers
}
=
[];
ids_core_sources
.
source
{
last_index
+
nb_launchers
}
=
[];
end
end
...
@@ -309,13 +309,89 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
...
@@ -309,13 +309,89 @@ if ~isempty(ec_gdat.ec.data) % if EC data available, fill sources
last_index
=
last_index
+
nb_launchers
;
last_index
=
last_index
+
nb_launchers
;
end
end
%% nbi
%% NBI. same tgrid for NBI1 and NBI2
check_nbi
=
[
~
isempty
(
powers_gdat
.
nbi1
.
data
),
~
isempty
(
powers_gdat
.
nbi2
.
data
)];
active_nbi
=
find
(
check_nbi
==
1
);
nb_nbi
=
numel
(
check_nbi
);
nbi_names
=
{
'nbi1'
,
'nbi2'
};
if
numel
(
active_nbi
)
>
0
% get tgrid (same for NBI1 & 2 if both active) from active_nbi(1)
nbi_powers_tgrid
=
powers_gdat
.
(
nbi_names
{
active_nbi
(
1
)})
.
t
;
% find times where NBI is on to define time grid with extra time slice just
% before/after NBI power and at start/end of shot
itime_nbi
=
find
((
powers_gdat
.
(
nbi_names
{
active_nbi
(
1
)})
.
data
>
0
));
% & ...
% powers_gdat.(nbi_names{active_nbi(1)}).t<(ohm_t_grid(end)));
if
nbi_powers_tgrid
(
itime_nbi
(
end
))
>=
ohm_t_grid
(
end
)
i_time_end
=
iround
(
nbi_powers_tgrid
,
ohm_t_grid
(
end
));
nbi_tgrid_out
=
[
ohm_t_grid
(
1
),
nbi_powers_tgrid
(
itime_nbi
(
1
)
-
1
:
i_time_end
)
'
];
else
nbi_tgrid_out
=
[
ohm_t_grid
(
1
),
nbi_powers_tgrid
(
itime_nbi
(
1
)
-
1
:
itime_nbi
(
end
)
+
1
)
'
,
ohm_t_grid
(
end
)];
end
nt_nbi_out
=
numel
(
nbi_tgrid_out
);
% Setup source structs for active nbi from template
main_desc
=
'Source from Neutral Beam Injection'
;
id_nbi
.
index
=
2
;
id_nbi
.
name
=
'nbi'
;
for
i_nbi
=
active_nbi
id_nbi
.
description
=
sprintf
(
'NBI%i %s'
,
i_nbi
,
main_desc
);
ids_core_sources
.
source
{
last_index
+
i_nbi
}
=
source_template
;
ids_core_sources
.
source
{
last_index
+
i_nbi
}
.
identifier
=
id_nbi
;
ids_core_sources
.
source
{
last_index
+
i_nbi
}
.
profiles_1d
(
1
:
nt_nbi_out
)
=
{
profiles_template
};
ids_core_sources
.
source
{
last_index
+
i_nbi
}
.
global_quantities
(
1
:
nt_nbi_out
)
=
{
globals_template
};
end
sprintf
(
'Loading of current & power densities from ASTRA not implemented yet. \n'
)
sprintf
(
'Checking if ASTRA run available on partition /Lac8_D:'
)
[
~
,
hostname
]
=
unix
(
'hostname'
);
if
strcmp
(
hostname
,
'lac8.epfl.ch'
)
unix
(
sprintf
(
'ls /Lac8_D/ASTRA/ | grep
''
%i
''
&& echo File for shotnumber exists! || echo File for shotnumber does not exist!'
,
shot
));
else
unix
(
sprintf
(
'ssh $(whoami)@lac8 "ls /Lac8_D/ASTRA/ | grep
''
%i
''
&& echo File for shotnumber exists! || echo File for shotnumber does not exist! && exit"'
,
shot
));
end
for
i_nbi
=
active_nbi
p_nbi_injected_tmp
=
interpos
(
nbi_powers_tgrid
,
powers_gdat
.
(
nbi_names
{
i_nbi
})
.
data
,
nbi_tgrid_out
);
for
ii
=
1
:
nt_nbi_out
% globals
ids_core_sources
.
source
{
last_index
+
i_nbi
}
.
global_quantities
{
ii
}
.
time
=
nbi_tgrid_out
(
ii
);
ids_core_sources
.
source
{
last_index
+
i_nbi
}
.
global_quantities
{
ii
}
.
power
=
p_nbi_injected_tmp
(
ii
);
end
end
% add empty for unused NBI
if
numel
(
ids_core_sources
.
source
)
-
last_index
~=
nb_nbi
ids_core_sources
.
source
{
last_index
+
nb_nbi
}
=
[];
end
last_index
=
last_index
+
nb_nbi
;
end
%% DNBI has it's own time grid
% if ~isempty(powers_gdat.nbi1)
%
% id_nbi.description = 'Source from Neutral Beam Injection';
% id_nbi.description = 'Source from Neutral Beam Injection';
% id_nbi.index = 2; id_nbi.name = 'nbi';
% id_nbi.index = 2; id_nbi.name = 'nbi';
% ids_core_sources.source{} = source_template;
% ids_core_sources.source{last_index+1} = source_template;
% ids_core_sources.source{}.identifier = id_nbi;
% ids_core_sources.source{last_index+1}.identifier = id_nbi;
% ids_core_sources.source{}.profiles_1d(1:n_t) = {profiles_template};
% ids_core_sources.source{last_index+1}.profiles_1d(1:n_t) = {profiles_template};
% ids_core_sources.source{}.global_quantities(1:n_t) = {globals_template};
% ids_core_sources.source{last_index+1}.global_quantities(1:n_t) = {globals_template};
%
% % find times of injected EC power to interpolate power & current densities
% % on p_ec_injected tgrid
% ec_powers_tgrid = powers_gdat.ec.t; %nt_ec_powers = numel(ec_powers_tgrid);
% % find times where EC is on to define time grid with extra time slice just
% % before/after EC power and at start/end of shot
% itime_ec = find(powers_gdat.ec.data(:,end)>0);
% ec_tgrid_out = [ohm_t_grid(1),ec_powers_tgrid(itime_ec(1)-1:itime_ec(end)+1)',ohm_t_grid(end)];
% nt_ec_out = numel(ec_tgrid_out);
% p_ec_injected = interpos(ec_powers_tgrid,powers_gdat.ec.data(:,end),ec_tgrid_out);
%
% last_index = last_index+nb_launchers;
% end
%% total
%% total
% id_total.description = 'Total source; combines all sources';
% id_total.description = 'Total source; combines all sources';
...
...
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