INFO: Using directory: "1" INFO: Using existing c-file: ./ILL_H53_IN14.c INFO: Using existing binary: ./ILL_H53_IN14.out INFO: === Simulation 'ILL_H53_IN14' (/u/data/pkwi/TESTS/2026-03-17/ANTLR_mpi_x_20_1e7_Linux_1e7/ILL_H53_IN14/ILL_H53_IN14.instr): running on 20 nodes (master is 'hypatia.fysik.dtu.dk', MPI version 3.1). ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Source_gen: component HCS (square 0.1 x 0.1) focusing distance dist=2.155 area=0.06 x 0.12 spectra 3.993 to 4.114 AA (4.833 to 5.131 meV) T1=413.5 K (1.515 AA), T2=145.8 K (2.552 AA), T3=40.1 K (4.865 AA) Flux is dPhi/dlambda in [n/s/cm2]. Al_window Al_window8 WARNING: Using simple lo-fi transmission model. - Replace with PowderN or NCrystal for bragg edges etc. ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Al_window Al_window9 WARNING: Using simple lo-fi transmission model. - Replace with PowderN or NCrystal for bragg edges etc. Al_window H53_COM_In WARNING: Using simple lo-fi transmission model. - Replace with PowderN or NCrystal for bragg edges etc. Al_window H53_COM_Out WARNING: Using simple lo-fi transmission model. - Replace with PowderN or NCrystal for bragg edges etc. Al_window H53_C1_In WARNING: Using simple lo-fi transmission model. - Replace with PowderN or NCrystal for bragg edges etc. Al_window H53_C1_Out WARNING: Using simple lo-fi transmission model. - Replace with PowderN or NCrystal for bragg edges etc. Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Opening input file '/u/data/pkwi/McStas/mcstas/3.x-dev/data/HOPG.rfl' (Table_Read_Offset) Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). ILL_H53_IN14: Incoming wavelength lambda=4.05367 [Angs] templateTAS: Detailed TAS configuration * Incoming beam: EI=4.978 [meV] KI=1.55 [Angs-1] Vi=975.915 [m/s] Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). * Outgoing beam: EF=4.978 [meV] KF=1.55 [Angs-1] Vf=975.915 [m/s] Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). * Transfer: EN=0 [meV] QM=1 [Angs-1] Angles: A1=37.17 A2=74.33 A3=0 A4=-37.64 A5=37.17 A6=74.33 [deg] Monochromator: DM=3.355 [Angs] RMH=0 [m] RMV=1.966 [m] curved Analyzer: DA=3.355 [Angs] RAH=1.534 [m] RAV=0 [m] curved Sample: Powder V.lau Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Monitor_nD: Mon_VS_XY: Using capture flux weightening on 64000 bins. WARNING Use binned data with caution, and prefer monitor integral value (I,Ierr). Isotropic_Sqw: Sample: is a hollow cylinder: radius=0.010000 thickness=0.005000 height=0.050000 [J Comp Phys 228 (2009) 5251] Opening input file '/u/data/pkwi/McStas/mcstas/3.x-dev/data/V.lau' (Table_Read_Offset) Opening input file '/u/data/pkwi/McStas/mcstas/3.x-dev/data/V.lau' (Table_Read_Offset) Isotropic_sqw: Sample: Powder file probably of type Crystallographica/Fullprof (lau) WARNING: but F2 unit is set to powder_barns=1 (barns). Intensity might be 100 times too high. Isotropic_sqw: Converting 3558 powder lines from V.lau into S(q,w) data Isotropic_sqw: q range [0:25.0197], creating 423 elements vector Isotropic_Sqw: Sample: Generated V.lau coherent Sqw q=[0:24.9605 Angs-1] w=[0:0 meV] |S|=0.869429 size=[423x1] sigma=0.01834 [barns] Mainly elastic scattering. Isotropic_Sqw: Sample: Using Isotropic elastic incoherent scattering (sigma=5.07999 [barns]) Isotropic_Sqw: Sample: Sample temperature not defined (T=0). Warning Disabling detailed balance. Reusing input file 'HOPG.rfl' (Table_Read_Offset) *** TRACE end *** Detector: Mon_VS_L_I=4.05127e+08 Mon_VS_L_ERR=1.09773e+06 Mon_VS_L_N=296492 "mon_vs_l.dat" Detector: Mon_VS_XY_I=9.13027e+08 Mon_VS_XY_ERR=2.47354e+06 Mon_VS_XY_N=296492 "mon_vs_xy.dat" Detector: Mon_VS1_L_I=3.67139e+08 Mon_VS1_L_ERR=1.03785e+06 Mon_VS1_L_N=284740 "Mon_VS1_L_1773737309.L" Detector: Mon_VS2_L_I=3.45331e+08 Mon_VS2_L_ERR=1.00444e+06 Mon_VS2_L_N=278935 "Mon_VS2_L_1773737309.L" Detector: D4_SC2_1D_I=3.65228e+09 D4_SC2_1D_ERR=8.56091e+06 D4_SC2_1D_N=441447 "D4_SC2_1D_1773737309.L" Detector: Sample_Cradle_I=7.44522e+07 Sample_Cradle_ERR=285297 Sample_Cradle_N=155760 "Sample_Cradle.dat" Detector: D7_SC3_1D_I=6.34109e+08 D7_SC3_1D_ERR=1.09673e+06 D7_SC3_1D_N=3.26469e+06 "D7_SC3_1D_1773737309.th_E" Detector: He3H_I=517.201 He3H_ERR=13.726 He3H_N=6281 "He3H.psd" Isotropic_Sqw: Sample: 504 neutron events (out of 1214238) that should have scattered were transmitted because scattering conditions WARNING could not be satisfied after 100 tries. Isotropic_Sqw: Sample: Scattering fraction=0.364363 of incoming intensity Absorption fraction =0.692095 Single scattering intensity =4.0523e+06 (coh=8528.25 inc=4.04378e+06) Multiple scattering intensity =0 INFO: Placing instr file copy ILL_H53_IN14.instr in dataset 1 INFO: Placing generated c-code copy ILL_H53_IN14.c in dataset 1