RELAXATION calculation for Si, only relax atomic postion
atom.config
2 LATTICE 0.00000000 2.73899206 2.73899206 2.73899206 0.00000000 2.73899206 2.73899206 2.73899206 0.00000000 POSITION 14 0.00000000 0.00000000 0.00000000 0 0 0 #Zatom x1 x2 x3 imv1 imv2 imv3 14 0.25000000 0.23000000 0.25000000 1 1 1
1 4 JOB = RELAX IN.PSP1 = Si.SG15.PBE.UPF IN.ATOM = atom.config RELAX_DETAIL = 1 100 0.005 #IMTH, NSTEP, FORCE_TOL ECUT = 50 ECUT2= 200 MP_N123 = 9 9 9 0 0 0
Si.SG15.PBE.UPF
Si.SG15.PEB.UPF is the pseudopotential file.
mpirun -np 4 PWmat | tee output
Run the command directly
#!/bin/bash #PBS -N SCF #PBS -l nodes=1:ppn=4 #PBS -q batch #PBS -l walltime=100:00:00 ulimit -s unlimited cd $PBS_O_WORKDIR mpirun -np 4 PWmat | tee output
Submit the task with a pbs script
RELAXSTEPS: concisely reports about the atomic relaxation steps. A typical RELAXSTEPS file looks like:
It= -1 CORR E= -0.2144796997311E+03 Av_F= 0.58E+00 M_F= 0.71E+00 dE= 0.42E-05 dRho= 0.83E-04 SCF= 13 dL= 0.00E+00 p*F= 0.00E+00 p*F0= 0.00E+00 Fch= 0.00E+00 It= 0 NEW E= -0.2145128948737E+03 Av_F= 0.22E+00 M_F= 0.26E+00 dE= 0.20E-05 dRho= 0.30E-04 SCF= 6 dL= 0.92E-01 p*F= -0.37E+00 p*F0= -0.10E+01 Fch= 0.10E+01 It= 1 CORR E= -0.2145181062288E+03 Av_F= 0.57E-01 M_F= 0.98E-01 dE= 0.88E-06 dRho= 0.13E-04 SCF= 5 dL= 0.15E+00 p*F= 0.52E-03 p*F0= -0.10E+01 Fch= 0.99E+00 It= 2 NEW E= -0.2145184522502E+03 Av_F= 0.18E-01 M_F= 0.31E-01 dE= 0.59E-05 dRho= 0.32E-04 SCF= 4 dL= 0.10E-01 p*F= -0.30E-01 p*F0= -0.98E-01 Fch= 0.10E+01 ... It= 7 NEW E= -0.2145184866505E+03 Av_F= 0.14E-02 M_F= 0.17E-02 dE= 0.24E-05 dRho= 0.16E-04 SCF= 2 dL= -0.10E-02 p*F= -0.25E-02 p*F0= -0.94E-02 Fch= -0.22E+01 It= 8 *END E= -0.2145184866505E+03 Av_F= 0.14E-02 M_F= 0.17E-02 dE= 0.24E-05 dRho= 0.16E-04 SCF= 2 dL= -0.10E-02 p*F= -0.25E-02 p*F0= -0.94E-02 Fch= -0.22E+01
REPORT: more detailed information about every electronic and ionic step
final.config: holds the structure of the last ionic step, the structural result (also very important for restarting a relaxation)
MOVEMENT: holds the structures of every ionic step during relaxations.