[Pw_forum] SCF output information when testing espresso4.0cvs3
Paolo Giannozzi
giannozz at nest.sns.it
Mon Apr 28 14:17:12 CEST 2008
Zheng Bing wrote:
> The input is as following:
> ----------------------------------------
> &control
> calculation='scf', pseudo_dir = '$pseudi', outdir='$workdir',
> prefix='bmo_4.2', disk_io='high', verbosity='high',/
> &system
> ibrav=0,celldm(1)=7.3894,nat=5,ntyp=3,nbnd=30,ecutwfc=35.0,
> ecutrho=350.0,occupations='smearing',smearing='gaussian',
> degauss=0.01, starting_magnetization(2)=1.0,
> constrained_magnetization='atomic',
> lambda=1.0, nspin=2,
> &electrons
there must be a missing line here
> conv_thr = 1.0d-2
too small for meaningful results
> ----------------------------------------------------
> The output which only the atomic magnetization from the last
> scf step are shown. Notice the No.4 is zero.
this is what I get. Please be more specific on how you got
your results.
==============================================================================
atom number 1 relative position : 0.0000 0.0000 0.0000
charge : 9.095727
magnetization : 0.016660
magnetization/charge: 0.001832
constrained moment : 0.000000
==============================================================================
atom number 2 relative position : 0.5000 0.5000 0.5000
charge : 11.952491
magnetization : 0.055621
magnetization/charge: 0.004654
constrained moment : 1.000000
==============================================================================
atom number 3 relative position : 0.0000 0.5000 0.5000
charge : 5.364920
magnetization : 0.000000
magnetization/charge: 0.000000
constrained moment : 0.000000
==============================================================================
atom number 4 relative position : 0.5000 0.0000 0.5000
charge : 5.364920
magnetization : 0.000000
magnetization/charge: 0.000000
constrained moment : 0.000000
==============================================================================
atom number 5 relative position : 0.5000 0.5000 0.0000
charge : 5.364920
magnetization : 0.000000
magnetization/charge: 0.000000
constrained moment : 0.000000
==============================================================================
--
Paolo Giannozzi, Democritos and University of Udine, Italy
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