cvc.input.mask

# *******************************************************
# * input parameters for cvc-code
# *******************************************************

# T =
# L =
# L5 =
# LX =
# LY =
# LZ =
# mu =
# musigma =
# mudelta =
# mubar =
# m5 =
# m0 =
# epsbar =
# Nconf =
# kappa =
# sourceid =
# sourceid2 =
# gaugeid =
# gaugeid2 =
# gaugeid_step =
# Nsave =
# format =
# BCangleT =
# BCangleX =
# BCangleY =
# BCangleZ =
# filename_prefix =
# filename_prefix2 =
# gaugefilename_prefix =
# outfile_prefix =
# resume =
# subtract =
# source_location =
# seed =
# noise_type =
# source_type =
# solver_precision =
# reliable_delta =
# niter_max =
# sourceid_step =
# hpe_order_min =
# hpe_order_max =
# hpe_order =
# cut_angle =
# cut_radius =
# cut_dirT =
# cut_dirX =
# cut_dirY =
# cut_dirZ =
# Rmin =
# Rmax =
# avgT =
# avgL =
# dcoeff_re =
# dcoeff_im =
# mrho =
# ft_rmax1 =
# ft_rmax2 =
# ft_rmax3 =
# ft_rmax4 =
# prop_normsqr =
# qhatsqr_min =
# qhatsqr_max =
# Nlong =
# N_ape =
# N_Jacobi =
# alpha_ape =
# kappa_Jacobi =
# source_timeslice =
# no_extra_masses =
# no_light_masses =
# no_strange_masses =
# NrTProcs =
# NrXProcs =
# NrYProcs =
# local_local =
# local_smeared =
# smeared_local =
# smeared_smeared =
# rotate_etmc_ukqcd =
# propagator_position =
# gpu_device_number =
# gpu_per_node =
# coherent_source =
# coherent_source_base =
# coherent_source_delta =
# gauge_file_format =
# rng_filename =
# source_indices =
# propagator_bc_type =
# propagator_gamma_basis =
# propagator_precision =
# write_source =
# read_source =
# samples =
# as_over_a =
# num_threads =
# source_momentum_x =
# source_momentum_y =
# source_momentum_z =
# sink_momentum_x =
# sink_momentum_y =
# sink_momentum_z =
# seq_source_momentum_x =
# seq_source_momentum_y =
# seq_source_momentum_z =
# cpu_precision =
# gpu_precision =
# gpu_precision_sloppy =
# inverter_type =