Dear siesta users!

I get the following error message while trying to do a structure relaxation:

atom: Including non-local core corrections could be a good idea
atom: Maximum radius for 4*pi*r*r*local-pseudopot. charge    2.19072
atom: Maximum radius for r*vlocal+2*Zval:    1.98224
GHOST: WARNING: Ghost state for L =  0
GHOST: No ghost state for L =  1
KBgen: More than one KB projector for l=  2
KBgen: ghost states analysis will be not performed
KBgen: WARNING: Ghost states have been detected
KBgen: WARNING: Some parameter should be changed in the
KBgen: WARNING: pseudopotential generation procedure.
Stopping Program from Node:    0

I attach my .fdf file together with the input file for germanium
pseudopotential generation. Also, the whole output message is attached
below. I'd appreciate any thoughts on how to deal with this error.
Thank you!

Sincerely,
Gleb G.

GeH.fdf:
# test .fdf file for hydrogen-passivated germanium
# NW structure relaxation

SystemName                  Hexagonal passivated GeNW
SystemLabel                   GeH

## single-zeta basis plus
## polarization orbitals

Number_of_species          2

%block Ps.lmax
   Ge   2
%endblock Ps.lmax

%block ChemicalSpeciesLabel
1           32       Ge
2            1        H
%endblock ChemicalSpeciesLabel

PAO.BasisType   split
PAO.BasisSize   DZP
PAO.EnergyShift   200 eV  # 0.02 Ry by default
PAO.SplitNorm     0.15



## The block below is unclear. Pasted
## from passivated silicon.

%Block PAO.Basis
Ge 4 1.34026
n=3 2 2
6.0 5.0
1.0 1.0
n=4 0 2 E 18.70507 5.90867
7.12964 1.92417
1.00000 1.00000
n=4 1 2 E 81.00495 6.05123
7.71516 4.92203
1.00000 1.00000
n=4 2 1 E 29.55634 5.20733
7.78841
1.00000
%EndBlock PAO.Basis

#%block PAO.basis
#Ge 3 1.34026
#n=4 0 2 E 18.70507 5.90867
#7.12964 1.92417
#1.00000 1.00000
#n=4 1 2 E 81.00495 6.05123
#7.71516 4.92203
#1.00000 1.00000
#n=4 2 1 E 29.55634 5.20733
#7.78841
#1.00000
#  H    1
#       0   2
#         5.00  0.00
#%endblock PAO.basis

# the following was inside PAO.Basis and didn't work
#  Ge      4 split 0.0
#    n=3  2 2 E 50.0 2.5
#         4.5 4.5
#    n=4  0 2 P 2
#         5.0 5.0
#         1 2 P 2
#         5.0  5.0
#H     2      0.22
#                n=1    0    2   E      2.07      0.00
#                4.971   1.771
#                1.000   1.000
#                n=2    1    1   E      0.89      0.01
#                4.988
#                1.000
#  H    1 # Label, l_shells, type (optional), ionic_charge (optional)
#       0   2 # l, Nzeta
#         5.00  0.00 #     rc(izeta=1,Nzeta)(Bohr)
#H     2      0.22
# n=1    0    2   E      2.07      0.00
#   4.971   1.771
#   1.000   1.000
# n=2    1    1   E      0.89      0.01
#   4.988
#   1.000
#  H  1
#     0  1
#     0. 0.8







## block below UNSURE

%block kgrid_Monkhorst_Pack
   8  0  0  0.5
   0  1  0  0.5
   0  0  1  0.5
%endblock kgrid_Monkhorst_Pack



## is this the cutoff for the grid
## integration?

Lattice constant        5.66000    Ang

%block LatticeVectors
            2.000    0.000    0.000
            0.000    2.000    0.000
            0.000    0.000    2.000
%endblock LatticeVectors

AtomicCoordinatesFormat    Ang
# output will be in cartesian angstroms

NumberOfAtoms       116
# CHANGE accordingly!

ZM.UnitsLength     Ang
ZM.UnitsAngle   deg

ZM.ForceTolLength          0.04  eV/Ang
# according to the paper for Si



MeshCutOff      200.0  Ry
# energy cut-off for 3D mesh

MaxSCFIterations     300
# was 100

DM.NumberPulay      8
# taken from the code for Si
# Pulay convergence accelerator

DM.Tolerance   0.1000000000E-02
#1.d-5 in Dani example
# 0.1000000000E-02 in siesta example
# when the in/out matrix difference
# reaches this number the procedure
# stops

SolutionMethod     diagon
Diag.Memory    2.000000000
# default is 1.000000000

MD.VariableCell   .true.
# if .true. lattice is relaxed together with
# the atomic coordinates in the
## conjugate gradient minimization.
# Allows to target hydrostatic pressures
# or arbitrary stress tensors.

MD.TypeOfRun    CG
# coord optimization by conjugate
# gradients.

MD.UseSaveCG      .true.
# .false. by default

MD.NumCGsteps        300
# 50 by default

MD.MaxCGDispl   0.1 ang
# .1 by default. Max displacement during
# relaxation.

# MD.MaxForceTol
# MD.MaxStressTol

WriteKpoints   .false.
WriteDM       .true.
# MAKE .false. for large molecules

WriteKbands           .false.
# May have to CHANGE

WriteBands    .false.
# May have to CHANGE

WriteCoorInitial         .false.
# T by default

WriteMDXmol     T
# Outputs a file for the XMol vizualization
# software.

LongOutput        F
# F by default.

DirectPhi  .false.
# SET to .true. if there is not enough
# memory.

WriteCoorXmol       .false.
# Writes coordinates for Xmol software

WriteCoorCerius .false.
# Writes coordinates for Cerius
# vizualizator
# SET the above values to false if the
# files are useless.

%block AtomicCoordinatesAndAtomicSpecies
-3.001668 6.3675  0.000000 1 # Ge 1
-3.001668 1.965278 3.557533 1 # Ge 2
-3.001668 -2.436944 7.115066 1 # Ge 3
1.000556 4.480833 6.670374 1 # Ge 4
-3.001668 4.480833 6.670374 1 # Ge 5
-1.000556 5.424167 3.335187 1 # Ge 6
-1.000556 5.581389 5.780991 1 # Ge 7
-3.001668 6.524722 2.445804 1 # Ge 8
-1.000556 1.021944 6.89272 1 # Ge 9
-3.001668 2.1225 6.003337 1 # Ge 10
-3.001668 1.336389 -6.225682 1 # Ge 11
-3.001668 -3.065833 -2.66815 1 # Ge 12
-3.001668 -7.468056 0.889383 1 # Ge 13
1.000556 3.851944 -3.112841 1 # Ge 14
-3.001668 3.851944 -3.112841 1 # Ge 15
-1.000556 4.9525 -4.002224 1 # Ge 16
1.000556 -0.550278 0.444692 1 # Ge 17
-1.000556 2.908611 0.222346 1 # Ge 18
-3.001668 -0.550278 0.444692 1 # Ge 19
-1.000556 0.393056 -2.890495 1 # Ge 20
-1.000556 0.550278 -0.444692 1 # Ge 21
-3.001668 1.493611 -3.779879 1 # Ge 22
-3.001668 4.009167 -0.667037 1 # Ge 23
1.000556 -4.9525 4.002224 1 # Ge 24
-1.000556 -1.493611 3.779879 1 # Ge 25
-3.001668 -4.9525 4.002224 1 # Ge 26
-1.000556 -4.009167 0.667037 1 # Ge 27
-1.000556 -3.851944 3.112841 1 # Ge 28
-3.001668 -2.908611 -0.222346 1 # Ge 29
-3.001668 -0.393056 2.890495 1 # Ge 30
1.000556 6.3675 0.0 1 # Ge 31
-1.000556 7.468056 -0.889383 1 # Ge 32
3.001668 7.468056 -0.889383 1 # Ge 33
3.001668 5.424167 3.335187 1 # Ge 34
1.000556 1.965278 3.557533 1 # Ge 35
3.001668 2.908611 0.222346 1 # Ge 36
-1.000556 3.065833 2.66815 1 # Ge 37
3.001668 3.065833 2.66815 1 # Ge 38
1.000556 4.009167 -0.667037 1 # Ge 39
1.000556 6.524722 2.445804 1 # Ge 40
3.001668 1.021944 6.89272 1 # Ge 41
1.000556 -2.436944 7.115066 1 # Ge 42
3.001668 -1.493611 3.779879 1 # Ge 43
-1.000556 -1.336389 6.225682 1 # Ge 44
3.001668 -1.336389 6.225682 1 # Ge 45
1.000556 -0.393056 2.890495 1 # Ge 46
1.000556 2.1225 6.003337 1 # Ge 47
3.001668 5.581389 5.780991 1 # Ge 48
1.000556 -5.581389 -5.780991 1 # Ge 49
-1.000556 -2.1225 -6.003337 1 # Ge 50
-3.001668 -5.581389 -5.780991 1 # Ge 51
-1.000556 -4.480833 -6.670374 1 # Ge 52
-3.001668 -1.021944 -6.89272 1 # Ge 53
-1.000556 -6.524722 -2.445804 1 # Ge 54
-3.001668 -5.424167 -3.335187 1 # Ge 55
1.000556 1.336389 -6.225682 1 # Ge 56
-1.000556 2.436944 -7.115066 1 # Ge 57
3.001668 2.436944 -7.115066 1 # Ge 58
3.001668 0.393056 -2.890495 1 # Ge 59
1.000556 -3.065833 -2.66815 1 # Ge 60
3.001668 -2.1225 -6.003337 1 # Ge 61
-1.000556 -1.965278 -3.557533 1 # Ge 62
3.001668 -1.965278 -3.557533 1 # Ge 63
1.000556 -1.021944 -6.89272 1 # Ge 64
1.000556 1.493611 -3.779879 1 # Ge 65
3.001668 -4.009167 0.667037 1 # Ge 66
1.000556 -7.468056 0.889383 1 # Ge 67
3.001668 -6.524722 -2.445804 1 # Ge 68
-1.000556 -6.3675  0.000000 1 # Ge 69
3.001668 -6.3675  0.000000 1 # Ge 70
1.000556 -5.424167 -3.335187 1 # Ge 71
1.000556 -2.908611 -0.222346 1 # Ge 72
3.001668 4.9525 -4.002224 1 # Ge 73
3.001668 0.550278 -0.444692 1 # Ge 74
3.001668 -3.851944 3.112841 1 # Ge 75
3.001668 -4.480833 -6.670374 1 # Ge 76
-3.001668 -2.340582 8.614106 2 # H 77
-3.001668 -3.882374 6.706236 2 # H 78
1.000556 4.577195 8.169415 2 # H 79
-3.001668 4.577195 8.169415 2 # H 80
-1.000556 7.026819 6.18982 2 # H 81
-3.001668 7.970152 2.854633 2 # H 82
-1.000556 1.118306 8.391761 2 # H 83
-3.001668 -7.371694 2.388424 2 # H 84
-3.001668 -8.913486 0.480554 2 # H 85
-1.000556 6.39793 -3.593395 2 # H 86
-1.000556 4.856138 -5.501265 2 # H 87
1.000556 -4.856138 5.501265 2 # H 88
1.000556 -6.39793 3.593395 2 # H 89
-3.001668 -4.856138 5.501265 2 # H 90
-3.001668 -6.39793 3.593395 2 # H 91
-1.000556 8.913486 -0.480554 2 # H 92
-1.000556 7.371694 -2.388424 2 # H 93
3.001668 8.913486 -0.480554 2 # H 94
3.001668 7.371694 -2.388424 2 # H 95
1.000556 7.970152 2.854633 2 # H 96
3.001668 1.118306 8.391761 2 # H 97
1.000556 -2.340582 8.614106 2 # H 98
1.000556 -3.882374 6.706236 2 # H 99
3.001668 7.026819 6.18982 2 # H 100
1.000556 -7.026819 -6.18982 2 # H 101
-3.001668 -7.026819 -6.18982 2 # H 102
-1.000556 -4.577195 -8.169415 2 # H 103
-3.001668 -1.118306 -8.391761 2 # H 104
-1.000556 -7.970152 -2.854633 2 # H 105
-1.000556 3.882374 -6.706236 2 # H 106
-1.000556 2.340582 -8.614106 2 # H 107
3.001668 3.882374 -6.706236 2 # H 108
3.001668 2.340582 -8.614106 2 # H 109
1.000556 -1.118306 -8.391761 2 # H 110
1.000556 -7.371694 2.388424 2 # H 111
1.000556 -8.913486 0.480554 2 # H 112
3.001668 -7.970152 -2.854633 2 # H 113
3.001668 6.39793 -3.593395 2 # H 114
3.001668 4.856138 -5.501265 2 # H 115
3.001668 -4.577195 -8.169415 2 # H 116
%endblock AtomicCoordinatesAndAtomicSpecies








Ge.inp:

   pg      Germanium     pseudopotential
        tm2 3.0
 n=Ge c=car
       0.0       0.0       0.0       0.0       0.0       0.0
    5    3
    4    0     2.00      0.00
    4    1     2.00      0.00
    4    2     0.00      0.00
    4    3     0.00      0.00
   2.68     2.68     2.68
# pg      Germanium  pseudopotential
#        tm2 3.0
#Ge car
#       0.0       0.0       0.0       0.0       0.0       0.0
#    5    3
#    4    0     2.00      0.00
#    4    1     2.00      0.00
#    4    2     0.00      0.00
#    4    3     0.00      0.00
#   1.81     2.26     0.51
#
# Last line (above):
#    rc(s)     rc(p)     rc(d)     rc(f)   rcore_flag  rcore
#
#23456789012345678901234567890123456789012345678901234567890




output message:


reinit: -----------------------------------------------------------------------
reinit: System Name: Hexagonal passivated GeNW
reinit: -----------------------------------------------------------------------
reinit: System Label: GeH
reinit: -----------------------------------------------------------------------

initatom: Reading input for the pseudopotentials and atomic orbitals ----------
 Species number:            1  Label: Ge Atomic number:          32
 Species number:            2  Label: H Atomic number:           1
Ground state valence configuration:   4s02  4p02
Reading pseudopotential information in unformatted form from Ge.vps
Semicore shell(s) with 10 electrons included in the valence for
Ge
Ground state valence configuration:   1s01
Reading pseudopotential information in unformatted form from H.vps
relmxkb: Read Max KB Ang. Momentum=    2 for species Ge
For H, standard SIESTA heuristics set lmxkb to 2
 (one more than the basis l, including polarization orbitals).
Use PS.lmax or PS.KBprojectors blocks to override.

<basis_specs>
===============================================================================
Ge                   Z=  32    Mass=  72.610        Charge=  1.3403
Lmxo=2 Lmxkb=2     BasisType=split      Semic=T
L=0  Nsemic=0  Cnfigmx=4
          n=1  nzeta=2  polorb=0
               vcte:    18.705
               rinn:    5.9087
                rcs:    7.1296      1.9242
            lambdas:    1.0000      1.0000
L=1  Nsemic=0  Cnfigmx=4
          n=1  nzeta=2  polorb=0
               vcte:    81.005
               rinn:    6.0512
                rcs:    7.7152      4.9220
            lambdas:    1.0000      1.0000
L=2  Nsemic=1  Cnfigmx=4
          n=1  nzeta=2  polorb=0
               vcte:    0.0000
               rinn:    0.0000
                rcs:    6.0000      5.0000
            lambdas:    1.0000      1.0000
          n=2  nzeta=1  polorb=0
               vcte:    29.556
               rinn:    5.2073
                rcs:    7.7884
            lambdas:    1.0000
-------------------------------------------------------------------------------
L=0  Nkbl=1  erefs: 0.17977+309
L=1  Nkbl=1  erefs: 0.17977+309
L=2  Nkbl=2  erefs: 0.17977+309 0.17977+309
===============================================================================
</basis_specs>

atom: Called for Ge  (Z =  32)

read_vps: Pseudopotential generation method:
read_vps: ATM 3.2.2 Troullier-Martins

read_vps: Pseudopotential generated from a relativistic atomic calculation
read_vps: There are spin-orbit pseudopotentials available
read_vps: Spin-orbit interaction is not included in this calculation

read_vps: Valence configuration (pseudopotential and basis set generation):
4s( 2.00) rc: 1.10
4p( 2.00) rc: 1.13
4d( 0.00) rc: 1.17
Total valence charge:    4.00000

atom: Pseudopotential generated from an ionic configuration
atom: with net charge10.00

xc_check: Exchange-correlation functional:
xc_check: Ceperley-Alder
V l=0 = -2*Zval/r beyond r=  1.9576
V l=1 = -2*Zval/r beyond r=  1.9576
V l=2 = -2*Zval/r beyond r=  1.9576
All V_l potentials equal beyond r=  1.1580
This should be close to max(r_c) in ps generation
All pots = -2*Zval/r beyond r=  1.9576
Using large-core scheme for Vlocal

atom: Estimated core radius    1.95761

atom: Including non-local core corrections could be a good idea
atom: Maximum radius for 4*pi*r*r*local-pseudopot. charge    2.19072
atom: Maximum radius for r*vlocal+2*Zval:    1.98224
GHOST: WARNING: Ghost state for L =  0
GHOST: No ghost state for L =  1
KBgen: More than one KB projector for l=  2
KBgen: ghost states analysis will be not performed
KBgen: WARNING: Ghost states have been detected
KBgen: WARNING: Some parameter should be changed in the
KBgen: WARNING: pseudopotential generation procedure.
Stopping Program from Node:    0

Attachment: GeH.fdf
Description: Binary data

Attachment: Ge.tm2.inp
Description: Binary data

Reply via email to