When I get to epsilon, the program epsilon.cplx.x terminates.Here are my input and output files:
epsilon.inp
# epsilon.inp
epsilon_cutoff 8.0
number_bands 178
cell_slab_truncation
frequency_dependence 0
degeneracy_check_override
begin qpoints
0.001000000 0.000000000 0.000000000 1.0 1
0.000000000 0.250000000 0.000000000 1.0 0
0.000000000 0.500000000 0.000000000 1.0 0
0.000000000 0.750000000 0.000000000 1.0 0
0.250000000 0.250000000 0.000000000 1.0 0
end
epsilon.out
Running MPI version (parallel)
Running with 48 MPI task(s)
Using OpenMP. Number of threads per MPI task: 2
Compilation flags:
- Compiler: INTEL
- Para. flags: MPI, OMP
- Math flags: USESCALAPACK, USEFFTW3, HDF5
- Debug flags:
Running with verbosity level 1 (default).
We will start a new calculation from scratch.
We`ll perform a uniform sampling of the full BZ.
Computing the static inverse dielectric matrix
We are using matrix communication scheme
We are communicating via MPI
We are using a truncated Coulomb interaction: cell slab
Reading header of WFN
Highest occupied band (unshifted grid) = 40
Valence max (unshifted grid) = -5.369403 eV
Conduction min (unshifted grid) = -3.121088 eV
Middle energy (unshifted grid) = -4.245245 eV
Fermi energy (unshifted grid) = -4.245245 eV
Reading header of WFNq
Highest occupied band (shifted grid) = 40
Calculation parameters:
- Cutoff of the dielectric matrix (Ry): 8.00
- Total number of bands in the calculation: 178
- Number of fully occupied valence bands: 40
- Number of partially occ. conduction bands: 0
- Monkhorst-Pack q-grid for epsilon(q): 4 4 1
Running with 4 valence pools
Number of conduction bands per processor: 12
Number of valence bands per processor: 10
Memory available: 7862.9 MB per PE
Memory required for execution: 47.8 MB per PE
Memory required for vcoul: .0 MB per PE
Number of electrons per unit cell (from ifmax) = 40.000000
Number of electrons per unit cell (from occupations) = 40.000000
Plasma Frequency = 1.140342 Ry
Started reading wavefunctions (WFN) with 890 state(s) at 16:03:58.
[ 16:03:58 | 0% ] state 1 / 890.
[ 16:03:58 | 0% ] state 3 / 890, remaining: 0 s.
[ 16:03:58 | 10% ] state 89 / 890, remaining: 1 s.
[ 16:03:58 | 20% ] state 178 / 890, remaining: 1 s.
[ 16:03:59 | 30% ] state 267 / 890, remaining: 1 s.
[ 16:03:59 | 40% ] state 356 / 890, remaining: 1 s.
[ 16:03:59 | 50% ] state 445 / 890, remaining: 1 s.
[ 16:03:59 | 60% ] state 534 / 890, remaining: 0 s.
[ 16:03:59 | 70% ] state 623 / 890, remaining: 0 s.
[ 16:03:59 | 80% ] state 712 / 890, remaining: 0 s.
[ 16:03:59 | 90% ] state 801 / 890, remaining: 0 s.
[ 16:03:59 | 100% ] state 890 / 890, remaining: 0 s.
Finished reading wavefunctions (WFN) at 16:03:59.
Elapsed time: 1 s.
Initializing eps0mat.h5
Initializing epsmat.h5
- Screened Coulomb cutoff: 8.000 Ry
- Total number of bands: 178
- Number of q-points: 5
Scissors parameters:
- Valence: es = 0.0000 eV, e0 = 0.0000 eV, edel = 0.0000
- Conduction: es = 0.0000 eV, e0 = 0.0000 eV, edel = 0.0000
Q0 and |Q0| = 0.001000 0.000000 0.000000 0.001158
Q and |Q| = 0.000000 0.250000 0.000000 0.289478
Q and |Q| = 0.000000 0.500000 0.000000 0.578955
Q and |Q| = 0.000000 0.750000 0.000000 0.868433
Q and |Q| = 0.250000 0.250000 0.000000 0.501390
==================================== WARNING ==================================
==
You have enabled spin polarization or full spinor calculations.
Current formalism and implementation adopted by BerkeleyGW implicitly assumes
time-reversal symmetry (TRS), e.g. in the standard Adler-Wiser RPA polarizabili
ty.
Running magnetic/broken-TRS systems is fundamentally against these assumptions.
One needs to be aware of and justify its direct usage. Use at your own risk.
===============================================================================
==
GPU acceleration is : DISABLED
Algorithms used:
- mtxel : CPU_ALGO
- chi_summation : CPU_ALGO
You have a slightly shifted q0 vector and a semiconductor.
So, reading from WFNq.
Reading header of WFNq
Highest occupied band (shifted grid) = 40
Started reading wavefunctions (WFNq) with 400 state(s) at 16:03:59.
[ 16:03:59 | 0% ] state 1 / 400.
[ 16:03:59 | 1% ] state 3 / 400, remaining: 0 s.
[ 16:04:00 | 10% ] state 40 / 400, remaining: 1 s.
[ 16:04:01 | 20% ] state 80 / 400, remaining: 4 s.
[ 16:04:02 | 30% ] state 120 / 400, remaining: 6 s.
[ 16:04:06 | 40% ] state 160 / 400, remaining: 10 s.
[ 16:04:06 | 50% ] state 200 / 400, remaining: 7 s.
[ 16:04:07 | 60% ] state 240 / 400, remaining: 5 s.
[ 16:04:07 | 70% ] state 280 / 400, remaining: 3 s.
[ 16:04:09 | 80% ] state 320 / 400, remaining: 2 s.
[ 16:04:09 | 90% ] state 360 / 400, remaining: 1 s.
[ 16:04:09 | 100% ] state 400 / 400, remaining: 0 s.