def apply_optics(mad, optics_file):
pm.make_links(force=True,
links_dict={
'optics.madx':
'optics_runIII/RunIII_dev/2022_V1/PROTON/' + optics_file
})
mad.call('optics.madx')
def build_sequence(mad, beam):
slicefactor = 2
pm.make_links(force=True,
links_dict={
'optics_indep_macros.madx':
'tools/optics_indep_macros.madx',
'macro.madx': ('/afs/cern.ch/user/s/sterbini/public/'
'tracking_tools/tools/macro.madx'),
'optics_runII':
'/afs/cern.ch/eng/lhc/optics/runII',
'optics_runIII':
'/afs/cern.ch/eng/lhc/optics/runIII',
})
mylhcbeam = int(beam)
mad.input('ver_lhc_run = 3')
mad.input(f'mylhcbeam = {beam}')
mad.input('option, -echo,warn, -info;')
# optics dependent macros
mad.call('macro.madx')
# optics independent macros
mad.call('optics_indep_macros.madx')
assert mylhcbeam in [1, 2,
4], "Invalid mylhcbeam (it should be in [1, 2, 4])"
if mylhcbeam in [1, 2]:
mad.call('optics_runII/2018/lhc_as-built.seq')
else:
mad.call('optics_runII/2018/lhcb4_as-built.seq')
# New IR7 MQW layout and cabling
mad.call('optics_runIII/RunIII_dev/IR7-Run3seqedit.madx')
# Makethin part
if slicefactor > 0:
# the variable in the macro is slicefactor
mad.input(f'slicefactor={slicefactor};')
mad.call('optics_runII/2018/toolkit/myslice.madx')
mad.beam()
for my_sequence in ['lhcb1', 'lhcb2']:
if my_sequence in list(mad.sequence):
mad.input(
f'use, sequence={my_sequence}; makethin, sequence={my_sequence}, style=teapot, makedipedge=false;'
)
else:
warnings.warn('The sequences are not thin!')
# Cycling w.r.t. to IP3 (mandatory to find closed orbit in collision in the presence of errors)
for my_sequence in ['lhcb1', 'lhcb2']:
if my_sequence in list(mad.sequence):
mad.input(
f'seqedit, sequence={my_sequence}; flatten; cycle, start=IP3; flatten; endedit;'
)
def build_sequence(mad, beam, configuration):
optics_version = configuration['optics_version']
# Select beam
mad.input(f'mylhcbeam = {beam}')
# Make link to optics toolkit
pm.make_links(
{
'optics_toolkit':
f'optics_repository/HLLHCV{optics_version}/toolkit'
},
force=True)
mad.input('''
! Specify machine version
ver_lhc_run = 0;
'''
f'''ver_hllhc_optics = {optics_version};'''
f'''
! Get the toolkit
call,file=
"optics_repository/HLLHCV{optics_version}/toolkit/macro.madx";
'''
'''
! Build sequence
option, -echo,-warn,-info;
if (mylhcbeam==4){
call,file="optics_repository/runIII/lhcb4.seq";
} else {
call,file="optics_repository/runIII/lhc.seq";
};
option, -echo, warn,-info;
'''
f'''
!Install HL-LHC
call, file=
"optics_repository/HLLHCV{optics_version}/hllhc_sequence.madx";
'''
'''
! Slice nominal sequence
exec, myslice;
! Install placeholder elements for errors (set to zero)
call, file="errors/HL-LHC/install_MQXF_fringenl.madx"; ! adding fringe place holder
call, file="errors/HL-LHC/install_MCBXFAB_errors.madx"; ! adding D1 corrector placeholders in IR1/5 (for errors)
call, file="errors/HL-LHC/install_MCBRD_errors.madx"; ! adding D2 corrector placeholders in IR1/5 (for errors)
call, file="errors/HL-LHC/install_NLC_errors.madx"; ! adding non-linear corrector placeholders in IR1/5 (for errors)
!Cycling w.r.t. to IP3 (mandatory to find closed orbit in collision in the presence of errors)
if (mylhcbeam<3){
seqedit, sequence=lhcb1; flatten; cycle, start=IP3; flatten; endedit;
};
seqedit, sequence=lhcb2; flatten; cycle, start=IP3; flatten; endedit;
''')
def build_sequence(mad, beam):
from config import configuration
optics_path = configuration['optics_path']
# Select beam
mad.input(f'mylhcbeam = {beam}')
# Make link to optics toolkit
pm.make_links({'optics_toolkit': f'{optics_path}/toolkit'}, force=True)
mad.input('''
! Specify machine version
ver_lhc_run = 0;
ver_hllhc_optics = 1.4;
! Get the toolkit
call, file="%s/toolkit/macro.madx";
! Build sequence
option, -echo,-warn,-info;
if (mylhcbeam==4){
call,file="/afs/cern.ch/eng/lhc/optics/runIII/lhcb4.seq";
} else {
call,file="/afs/cern.ch/eng/lhc/optics/runIII/lhc.seq";
};
option, -echo, warn,-info;
!Install HL-LHC
call, file="%s/hllhc_sequence.madx";
! Slice nominal sequence
exec, myslice;
! Install placeholder elements for errors (set to zero)
call, file="errors/HL-LHC/install_MQXF_fringenl.madx"; ! adding fringe place holder
call, file="errors/HL-LHC/install_MCBXFAB_errors.madx"; ! adding D1 corrector placeholders in IR1/5 (for errors)
call, file="errors/HL-LHC/install_MCBRD_errors.madx"; ! adding D2 corrector placeholders in IR1/5 (for errors)
!Cycling w.r.t. to IP3 (mandatory to find closed orbit in collision in the presence of errors)
if (mylhcbeam<3){
seqedit, sequence=lhcb1; flatten; cycle, start=IP3; flatten; endedit;
};
seqedit, sequence=lhcb2; flatten; cycle, start=IP3; flatten; endedit;
''' % (optics_path, optics_path))
# Select mode
#mode = 'b1_without_bb'
mode = 'b1_with_bb'
#mode = 'b1_with_bb_legacy_macros'
#mode = 'b4_without_bb'
#mode = 'b4_from_b2_without_bb'
mode = 'b4_from_b2_with_bb'
# Tolarances for checks [ip1, ip2, ip5, ip8]
tol_beta = [1e-3, 10e-2, 1e-3, 1e-2]
tol_sep = [1e-6, 1e-6, 1e-6, 1e-6]
pm.make_links(force=True,
links_dict={
'tracking_tools': '/afs/cern.ch/eng/tracking-tools',
'modules': 'tracking_tools/modules',
'tools': 'tracking_tools/tools',
'beambeam_macros': 'tracking_tools/beambeam_macros',
'errors': 'tracking_tools/errors'
})
optics_file = 'opticsfile.29'
check_betas_at_ips = True
check_separations_at_ips = True
save_intermediate_twiss = True
# Check and load parameters
pm.checks_on_parameter_dict(mask_parameters)
# Define configuration
(
def build_sequence(mad, beam):
slicefactor = 8 # for production put slicefactor=8
pm.make_links(
force=True,
links_dict={
'optics_indep_macros.madx':
'tools/optics_indep_macros.madx',
'macro.madx':
('/afs/cern.ch/eng/lhc/optics/runII/2018/toolkit/macro.madx'),
'optics_runII':
'/afs/cern.ch/eng/lhc/optics/runII',
'optics_runIII':
'/afs/cern.ch/eng/lhc/optics/runIII',
})
mylhcbeam = int(beam)
mad.input('ver_lhc_run = 3')
mad.input(f'mylhcbeam = {beam}')
mad.input('option, -echo,warn, -info;')
# optics dependent macros
mad.call('macro.madx')
mad.input('''
crossing_save: macro = {
on_x1_aux=on_x1;on_sep1_aux=on_sep1;on_a1_aux=on_a1;on_o1_aux=on_o1;
on_x2_aux=on_x2;on_sep2_aux=on_sep2;on_a2_aux=on_a2;on_o2_aux=on_o2; on_oe2_aux=on_oe2;
on_x5_aux=on_x5;on_sep5_aux=on_sep5;on_a5_aux=on_a5;on_o5_aux=on_o5;
on_x8_aux=on_x8;on_sep8_aux=on_sep8;on_a8_aux=on_a8;on_o8_aux=on_o8;
on_x2h_aux=on_x2h;
on_x2v_aux=on_x2v;
on_sep2h_aux=on_sep2h;
on_sep2v_aux=on_sep2v;
on_x8h_aux=on_x8h;
on_x8v_aux=on_x8v;
on_sep8h_aux=on_sep8h;
on_sep8v_aux=on_sep8v;
on_disp_aux=on_disp;
on_alice_aux=on_alice;
on_lhcb_aux=on_lhcb;
};
crossing_disable: macro={
on_x1=0;on_sep1=0;on_a1=0;on_o1=0;
on_x2=0;on_sep2=0;on_a2=0;on_o2=0;on_oe2=0;
on_x5=0;on_sep5=0;on_a5=0;on_o5=0;
on_x8=0;on_sep8=0;on_a8=0;on_o8=0;
on_x2h=0;
on_x2v=0;
on_sep2h=0;
on_sep2v=0;
on_x8h=0;
on_x8v=0;
on_sep8h=0;
on_sep8v=0;
on_disp=0;
on_alice=0; on_lhcb=0;
};
crossing_restore: macro={
on_x1=on_x1_aux;on_sep1=on_sep1_aux;on_a1=on_a1_aux;on_o1=on_o1_aux;
on_x2=on_x2_aux;on_sep2=on_sep2_aux;on_a2=on_a2_aux;on_o2=on_o2_aux; on_oe2=on_oe2_aux;
on_x5=on_x5_aux;on_sep5=on_sep5_aux;on_a5=on_a5_aux;on_o5=on_o5_aux;
on_x8=on_x8_aux;on_sep8=on_sep8_aux;on_a8=on_a8_aux;on_o8=on_o8_aux;
on_x2h=on_x2h_aux;
on_x2v=on_x2v_aux;
on_sep2h=on_sep2h_aux;
on_sep2v=on_sep2v_aux;
on_x8h=on_x8h_aux;
on_x8v=on_x8v_aux;
on_sep8h=on_sep8h_aux;
on_sep8v=on_sep8v_aux;
on_disp=on_disp_aux;
on_alice=on_alice_aux; on_lhcb=on_lhcb_aux;
};
''')
# optics independent macros
mad.call('optics_indep_macros.madx')
assert mylhcbeam in [1, 2,
4], "Invalid mylhcbeam (it should be in [1, 2, 4])"
if mylhcbeam in [1, 2]:
mad.call('optics_runII/2018/lhc_as-built.seq')
else:
mad.call('optics_runII/2018/lhcb4_as-built.seq')
# New IR7 MQW layout and cabling
mad.call('optics_runIII/RunIII_dev/IR7-Run3seqedit.madx')
# Makethin part
if slicefactor > 0:
# the variable in the macro is slicefactor
mad.input(f'slicefactor={slicefactor};')
mad.call('optics_runII/2018/toolkit/myslice.madx')
mad.beam()
for my_sequence in ['lhcb1', 'lhcb2']:
if my_sequence in list(mad.sequence):
mad.input(
f'use, sequence={my_sequence}; makethin, sequence={my_sequence}, style=teapot, makedipedge=true;'
)
else:
warnings.warn('The sequences are not thin!')
# Cycling w.r.t. to IP3 (mandatory to find closed orbit in collision in the presence of errors)
for my_sequence in ['lhcb1', 'lhcb2']:
if my_sequence in list(mad.sequence):
mad.input(
f'seqedit, sequence={my_sequence}; flatten; cycle, start=IP3; flatten; endedit;'
)
import optics_specific_tools as ost
python_parameters = ost.get_python_parameters(job_row)
mask_parameters = ost.get_mask_parameters(python_parameters)
knob_parameters = ost.get_knob_parameters()
directory = python_parameters['working_folder']
if not os.path.exists(directory):
os.makedirs(directory)
os.chdir(directory)
# make a local copy in the job's folder of the jobs df and py files
if len(sys.argv) > 1:
shutil.copyfile(sys.argv[1], './input_jobs_df.pickle')
pm.make_links(
force=True,
links_dict={'parent_folder': python_parameters['parent_folder']})
for ff in glob.glob('parent_folder/*.py'):
shutil.copyfile(ff, os.path.split(ff)[1])
Madx = pm.Madxp
# Select mode
mode = python_parameters['mode']
# mode can be
# 'b1_with_bb'
# 'b1_with_bb_legacy_macros'
# 'b1_without_bb'
# 'b4_without_bb'
# 'b4_from_b2_without_bb'
# 'b4_from_b2_with_bb'
