When running make test jdftx passes only one of two tests.
As I have found, jdftx complains for command pcm-variant SG14NL in file
/path-to-jdftx/testsuite/moleculeSolvation/CANDLE.in.
Jdftx says pcm-variant should be one of the following:
CANDLE GLSSA13 LA12 PRA05 SGA13
I have changed it to CANDLE (I'm not sure it is a good choise) and ran 'make test' again.
changed contents of CANDLE.in
include ${SRCDIR}/common.in
include common.ionpos
fluid LinearPCM
pcm-variant CANDLE
Some time later jdftx finished work at CANDLE.in with error
'FAILED: error running CANDLE' (file summary) and came to SaLSA.in.
I also post the contents of changed CANDLE.out. May be it will be helpful.
With best wishes, Igor.
** JDFTx 0.99.alpha (svn revision 1091) The playground for joint density functional theory ***
Start date and time: Thu Feb 5 15:29:16 2015
Running on hosts (process indices): localhost ( 0 )
Executable /src/jdftx/build/jdftx with command-line: -i /src/jdftx/testsuite/moleculeSolvation/CANDLE.in -d -o CANDLE.out
Maximum cpu threads by process: 2
Run totals: 1 processes, 2 threads, 0 GPUs
Input parsed successfully to the following command list (including defaults):
---------- Setting up pseudopotentials ----------
Width of ionic core gaussian charges (only for fluid interactions / plotting) set to 0.397384
Reading pseudopotential file '/src/jdftx/build/pseudopotentials/GBRV/o_pbe_v1.2.uspp':
Title: O. Created by USPP 7.3.6 on 3-2-2014
Reference state energy: -15.894388. 6 valence electrons in orbitals:
|200> occupation: 2 eigenvalue: -0.878823
|210> occupation: 4 eigenvalue: -0.332131
lMax: 2 lLocal: 2 QijEcut: 6
5 projectors sampled on a log grid with 511 points:
l: 0 eig: -0.878823 rCut: 1.25
l: 0 eig: 0.000000 rCut: 1.25
l: 1 eig: -0.332132 rCut: 1.25
l: 1 eig: 0.000000 rCut: 1.25
l: 2 eig: 1.000000 rCut: 1.25
Partial core density with radius 0.7
Transforming core density to a uniform radial grid of dG=0.02 with 1166 points.
Transforming local potential to a uniform radial grid of dG=0.02 with 1166 points.
Transforming nonlocal projectors to a uniform radial grid of dG=0.02 with 432 points.
Transforming density augmentations to a uniform radial grid of dG=0.02 with 1166 points.
Transforming atomic orbitals to a uniform radial grid of dG=0.02 with 432 points.
Transforming overlap'd orbitals to a uniform radial grid of dG=0.02 with 432 points.
Core radius for overlap checks: 1.25 bohrs.
Reading pseudopotential file '/src/jdftx/build/pseudopotentials/GBRV/h_pbe_v1.uspp':
Title: H. Created by USPP 7.3.6 on 14-9-2013
Reference state energy: -0.458802. 1 valence electrons in orbitals:
|100> occupation: 1 eigenvalue: -0.238596
lMax: 0 lLocal: 1 QijEcut: 5
2 projectors sampled on a log grid with 395 points:
l: 0 eig: -0.238595 rCut: 0.9
l: 0 eig: 0.450000 rCut: 0.9
Transforming local potential to a uniform radial grid of dG=0.02 with 1166 points.
Transforming nonlocal projectors to a uniform radial grid of dG=0.02 with 432 points.
Transforming density augmentations to a uniform radial grid of dG=0.02 with 1166 points.
Transforming atomic orbitals to a uniform radial grid of dG=0.02 with 432 points.
Transforming overlap'd orbitals to a uniform radial grid of dG=0.02 with 432 points.
Core radius for overlap checks: 0.90 bohrs.
Folded 1 k-points by 1x1x1 to 1 k-points.
---------- Setting up k-points, bands, fillings ----------
No reducable k-points.
Computing the number of bands and number of electrons
Calculating initial fillings.
nElectrons: 8.000000 nBands: 4 nStates: 1
----- Setting up reduced wavefunction bases (one per k-point) -----
average nbasis = 14363.000 , ideal nbasis = 14418.257
---------- Setting up coulomb interaction ----------
Fluid mode embedding: using embedded box, but periodic Coulomb kernel.
(Fluid response is responsible for (approximate) separation between periodic images.)
Setting up double-sized grid for truncated Coulomb potentials:
R = [ 30 0 0 ] [ 0 30 0 ] [ 0 0 30 ]
unit cell volume = 27000
G = [ 0.20944 0 0 ] [ 0 0.20944 0 ] [ 0 0 0.20944 ]
Chosen fftbox size, S = [ 128 128 128 ]
Integer grid location selected as the embedding center:
Grid: [ 0 0 0 ]
Lattice: [ 0 0 0 ]
Cartesian: [ 0 0 0 ]
Constructing Wigner-Seitz cell: 6 faces (6 quadrilaterals, 0 hexagons)
Range-separation parameter for embedded mesh potentials due to point charges: 0.610753 bohrs.
Initializing van der Waals corrections
NOTE: vdW corrections apply only for interactions with fluid.
O: C6: 12.14 Eh-a0^6 R0: 2.536 a0
H: C6: 2.43 Eh-a0^6 R0: 1.892 a0
---------- Setting up ewald sum ----------
Optimum gaussian width for ewald sums = 9.965776 bohr.
Real space sum over 1331 unit cells with max indices [ 5 5 5 ]
Reciprocal space sum over 2197 terms with max indices [ 6 6 6 ]
---------- Allocating electronic variables ----------
Initializing wave functions: reading from 'common.wfns'
----- createFluidSolver() ----- (Fluid-side solver setup)
Initializing fluid molecule 'H2O'
Initializing site 'O'
Electron density: proportional to exp(-r/0.36935)erfc((r-0.51523)/0.36823) with norm 6.826
Charge density: gaussian nuclear width 0.478731 with net site charge 0.826
Polarizability: cuspless exponential with width 0.32 and norm 3.73
Hard sphere radius: 2.57003 bohrs
Positions in reference frame: [ +0.000000 +0.000000 +0.000000 ]
Initializing site 'H'
Electron density: proportional to exp(-r/0.34641)erfc((r-0)/0.390882) with norm 0.587
Charge density: gaussian nuclear width 0.377945 with net site charge -0.413
Polarizability: cuspless exponential with width 0.39 and norm 3.3
Positions in reference frame: [ +0.000000 -1.441945 +1.122523 ] [ +0.000000 +1.441945 +1.122523 ]
Net charge: 0 dipole magnitude: 0.927204
Initializing spherical shell mfKernel with radius 2.61727 Bohr
deltaS corrections:
site 'O': -7.54299
site 'H': -6.83917
Correction to mu due to finite nuclear width = -0.000293985
Cavity determined by nc: 0.00142 and sigma: 0.707107
Nonlocal vdW cavity from gaussian model electron density with norm = 8 and sigma = 0.993594 bohr
Charge asymmetry in cavity with sensitivity pCavity = 36.5 e-bohr/Eh
Electrostatic cavity expanded by eta = 1.46 bohrs
Weighted density cavitation model constrained by Nbulk: 0.0049383 bohr^-3, Pvap: 3.14029 kPa, Rvdw: 2.61727 bohr and sigmaBulk: 4.62e-05 Eh/bohr^2 at T: 298 K.
Weighted density dispersion model using vdW pair potentials with single solvent site with sqrtC6eff: 0.77 SI.
Reading fluid state from 'common.fluidState'
---- Citations for features of the code used in this run ----
Software package:
R. Sundararaman, K. Letchworth-Weaver and T.A. Arias, JDFTx, available from http://jdftx.sourceforge.net (2012)
Algebraic framework:
S. Ismail-Beigi and T.A. Arias, Computer Physics Communications 128, 1 (2000)
gga-PBE exchange-correlation functional:
J.P. Perdew, K. Burke and M. Ernzerhof, Phys. Rev. Lett. 77, 3865 (1996)
Wigner-Seitz truncated coulomb interaction:
R. Sundararaman and T.A. Arias, Phys. Rev. B 87, 165122 (2013)
Van der Waals correction pair-potentials:
S. Grimme, J. Comput. Chem. 27, 1787 (2006)
Framework of Joint Density Functional Theory:
S.A. Petrosyan SA, A.A. Rigos and T.A. Arias, J Phys Chem B. 109, 15436 (2005)
Charge-asymmetric nonlocally-determined local-electric (CANDLE) solvation model:
R. Sundararaman and W.A. Goddard III, J. Chem. Phys. 142, accepted (2015)
Total energy minimization:
T.A. Arias, M.C. Payne and J.D. Joannopoulos, Phys. Rev. Lett. 69, 1077 (1992)
This list may not be complete. Please suggest additional citations and report
any other bugs by creating a ticket at https://sourceforge.net/p/jdftx/tickets
-------- Electronic minimization -----------
Will mix electronic potential at each iteration.
Linear fluid (dielectric constant: 78.4) occupying 0.977453 of unit cell: Completed after 0 iterations.
Linear fluid (dielectric constant: 78.4) occupying 0.977737 of unit cell: Completed after 9 iterations.
SCF: Cycle: 0 Etot: -17.281211411427435 dE: -2.909e-04 |deigs|: 4.550e-05 |Residual|: 1.426e-03
Linear fluid (dielectric constant: 78.4) occupying 0.977711 of unit cell: Completed after 7 iterations.
SCF: Cycle: 1 Etot: -17.281236920402669 dE: -2.551e-05 |deigs|: 1.973e-03 |Residual|: 7.669e-04
Linear fluid (dielectric constant: 78.4) occupying 0.977712 of unit cell: Completed after 2 iterations.
SCF: Cycle: 2 Etot: -17.281237596195869 dE: -6.758e-07 |deigs|: 3.769e-04 |Residual|: 1.792e-04
Linear fluid (dielectric constant: 78.4) occupying 0.977714 of unit cell: Completed after 0 iterations.
SCF: Cycle: 3 Etot: -17.281237739601522 dE: -1.434e-07 |deigs|: 1.255e-04 |Residual|: 6.386e-05
Linear fluid (dielectric constant: 78.4) occupying 0.977715 of unit cell: Completed after 2 iterations.
SCF: Cycle: 4 Etot: -17.281237729339150 dE: 1.026e-08 |deigs|: 1.792e-05 |Residual|: 3.524e-05
Linear fluid (dielectric constant: 78.4) occupying 0.977715 of unit cell: Completed after 0 iterations.
SCF: Cycle: 5 Etot: -17.281237736443032 dE: -7.104e-09 |deigs|: 3.550e-05 |Residual|: 1.335e-05
Linear fluid (dielectric constant: 78.4) occupying 0.977715 of unit cell: Completed after 0 iterations.
SCF: Cycle: 6 Etot: -17.281237737434800 dE: -9.918e-10 |deigs|: 1.077e-05 |Residual|: 5.404e-06
SCF: Converged (|Delta E|<1.000000e-08 for 2 iters).
Ionic positions in cartesian coordinates:
ion O 0.000000000000000 -0.011759668560055 0.000000000000000 1
ion H 0.000000000000000 1.126048517572887 1.451071073403969 1
ion H 0.000000000000000 1.126048517572887 -1.451071073403970 1
Forces in Cartesian coordinates:
force O 0.000000000000000 -0.002788566884640 0.000000000000000 1
force H 0.000000000000000 0.001477189114913 0.002391887388614 1
force H 0.000000000000000 0.001477189114913 -0.002391887388614 1
Thanks for catching this bug. I recently updated the SG14NL internal code name for a solvation model to its published name, CANDLE, but I forgot to change the testsuite to reflect that.
Your change was exactly what needed to be done, thanks for catching that!
Fixed in latest svn ...
Cheers,
Shankar
PS: Next time, if you find bugs, please report them using the ticketing interface on this site. The bug report / ticket emails sound a little bit more urgent, so they will likely get addressed even quicker!
If you would like to refer to this comment somewhere else in this project, copy and paste the following link:
Possibly I have found a bug in test suite.
When running make test jdftx passes only one of two tests.
As I have found, jdftx complains for command pcm-variant SG14NL in file
/path-to-jdftx/testsuite/moleculeSolvation/CANDLE.in.
Jdftx says pcm-variant should be one of the following:
CANDLE GLSSA13 LA12 PRA05 SGA13
I have changed it to CANDLE (I'm not sure it is a good choise) and ran 'make test' again.
changed contents of CANDLE.in
include ${SRCDIR}/common.in
include common.ionpos
fluid LinearPCM
pcm-variant CANDLE
Some time later jdftx finished work at CANDLE.in with error
'FAILED: error running CANDLE' (file summary) and came to SaLSA.in.
I also post the contents of changed CANDLE.out. May be it will be helpful.
With best wishes, Igor.
** JDFTx 0.99.alpha (svn revision 1091) The playground for joint density functional theory ***
Start date and time: Thu Feb 5 15:29:16 2015
Running on hosts (process indices): localhost ( 0 )
Executable /src/jdftx/build/jdftx with command-line: -i /src/jdftx/testsuite/moleculeSolvation/CANDLE.in -d -o CANDLE.out
Maximum cpu threads by process: 2
Run totals: 1 processes, 2 threads, 0 GPUs
Input parsed successfully to the following command list (including defaults):
basis kpoint-dependent
coords-type cartesian
core-overlap-check vector
coulomb-interaction Isolated
coulomb-truncation-embed 0 0 0
davidson-band-ratio 1.1
dump End State
dump-name common.$VAR
elec-cutoff 20 100
elec-eigen-algo Davidson
elec-ex-corr gga-PBE
electronic-minimize \
dirUpdateScheme PolakRibiere \
linminMethod DirUpdateRecommended \
nIterations 100 \
history 15 \
knormThreshold 0 \
energyDiffThreshold 1e-08 \
nEnergyDiff 2 \
alphaTstart 1 \
alphaTmin 1e-10 \
updateTestStepSize yes \
alphaTreduceFactor 0.1 \
alphaTincreaseFactor 3 \
nAlphaAdjustMax 3 \
wolfeEnergy 0.0001 \
wolfeGradient 0.9 \
fdTest no
electronic-scf \
nIterations 50 \
nEigSteps 2 \
energyDiffThreshold 1e-08 \
eigDiffThreshold 1e-08 \
residualThreshold 1e-07 \
mixedVariable Potential \
mixFraction 0.5 \
mixFractionMag 1.5 \
qKerker 0.8 \
qMetric 0.8 \
history 10
exchange-regularization None
fluid LinearPCM 298.000000 1.013250
fluid-ex-corr (null) lda-PZ
fluid-gummel-loop 10 1.000000e-05
fluid-minimize \
dirUpdateScheme PolakRibiere \
linminMethod DirUpdateRecommended \
nIterations 400 \
history 15 \
knormThreshold 1e-11 \
energyDiffThreshold 0 \
nEnergyDiff 2 \
alphaTstart 1 \
alphaTmin 1e-10 \
updateTestStepSize yes \
alphaTreduceFactor 0.1 \
alphaTincreaseFactor 3 \
nAlphaAdjustMax 6 \
wolfeEnergy 0.0001 \
wolfeGradient 0.9 \
fdTest no
fluid-site-params
fluid-solvent H2O 55.338 ScalarEOS \
epsBulk 78.4 \
pMol 0.92466 \
epsInf 1.77 \
Pvap 1.06736e-10 \
sigmaBulk 4.62e-05 \
Rvdw 2.61727 \
Res 1.42
forces-output-coords Positions
initial-state common.$VAR
inverseKohnSham-minimize \
dirUpdateScheme PolakRibiere \
linminMethod DirUpdateRecommended \
nIterations 100 \
history 15 \
knormThreshold 0 \
energyDiffThreshold 1e-08 \
nEnergyDiff 2 \
alphaTstart 1 \
alphaTmin 1e-10 \
updateTestStepSize yes \
alphaTreduceFactor 0.1 \
alphaTincreaseFactor 3 \
nAlphaAdjustMax 3 \
wolfeEnergy 0.0001 \
wolfeGradient 0.9 \
fdTest no
ion O 0.000000000000000 -0.011759668560055 0.000000000000000 1
ion H 0.000000000000000 1.126048517572887 1.451071073403969 1
ion H 0.000000000000000 1.126048517572887 -1.451071073403970 1
ion-species GBRV/$ID_pbe_v1.2.uspp
ion-species GBRV/$ID_pbe_v1.uspp
ion-width Ecut
ionic-minimize \
dirUpdateScheme L-BFGS \
linminMethod DirUpdateRecommended \
nIterations 0 \
history 15 \
knormThreshold 0.0001 \
energyDiffThreshold 1e-06 \
nEnergyDiff 2 \
alphaTstart 1 \
alphaTmin 1e-10 \
updateTestStepSize yes \
alphaTreduceFactor 0.1 \
alphaTincreaseFactor 3 \
nAlphaAdjustMax 3 \
wolfeEnergy 0.0001 \
wolfeGradient 0.9 \
fdTest no
kpoint 0.000000000000 0.000000000000 0.000000000000 1.00000000000000
kpoint-folding 1 1 1
latt-move-scale 1 1 1
latt-scale 1 1 1
lattice Cubic 15
lattice-minimize \
dirUpdateScheme L-BFGS \
linminMethod DirUpdateRecommended \
nIterations 0 \
history 15 \
knormThreshold 0 \
energyDiffThreshold 1e-06 \
nEnergyDiff 2 \
alphaTstart 1 \
alphaTmin 1e-10 \
updateTestStepSize yes \
alphaTreduceFactor 0.1 \
alphaTincreaseFactor 3 \
nAlphaAdjustMax 3 \
wolfeEnergy 0.0001 \
wolfeGradient 0.9 \
fdTest no
lcao-params -1 1e-06 0.001
pcm-variant CANDLE
reorthogonalize-orbitals 20 1.5
spintype no-spin
subspace-rotation-factor 30
symmetries automatic no
---------- Setting up symmetries ----------
Searching for point group symmetries:
48 symmetries of the bravais lattice
reduced to 4 symmetries with basis
---------- Initializing the Grid ----------
R =
[ 15 0 0 ]
[ 0 15 0 ]
[ 0 0 15 ]
unit cell volume = 3375
G =
[ 0.418879 0 0 ]
[ 0 0.418879 0 ]
[ 0 0 0.418879 ]
Minimum fftbox size, Smin = [ 64 64 64 ]
Chosen fftbox size, S = [ 64 64 64 ]
---------- Initializing tighter grid for wavefunction operations ----------
R =
[ 15 0 0 ]
[ 0 15 0 ]
[ 0 0 15 ]
unit cell volume = 3375
G =
[ 0.418879 0 0 ]
[ 0 0.418879 0 ]
[ 0 0 0.418879 ]
Minimum fftbox size, Smin = [ 60 60 60 ]
Chosen fftbox size, S = [ 60 60 60 ]
---------- Exchange Correlation functional ----------
Initalized PBE GGA exchange.
Initalized PBE GGA correlation.
---------- Setting up pseudopotentials ----------
Width of ionic core gaussian charges (only for fluid interactions / plotting) set to 0.397384
Reading pseudopotential file '/src/jdftx/build/pseudopotentials/GBRV/o_pbe_v1.2.uspp':
Title: O. Created by USPP 7.3.6 on 3-2-2014
Reference state energy: -15.894388. 6 valence electrons in orbitals:
|200> occupation: 2 eigenvalue: -0.878823
|210> occupation: 4 eigenvalue: -0.332131
lMax: 2 lLocal: 2 QijEcut: 6
5 projectors sampled on a log grid with 511 points:
l: 0 eig: -0.878823 rCut: 1.25
l: 0 eig: 0.000000 rCut: 1.25
l: 1 eig: -0.332132 rCut: 1.25
l: 1 eig: 0.000000 rCut: 1.25
l: 2 eig: 1.000000 rCut: 1.25
Partial core density with radius 0.7
Transforming core density to a uniform radial grid of dG=0.02 with 1166 points.
Transforming local potential to a uniform radial grid of dG=0.02 with 1166 points.
Transforming nonlocal projectors to a uniform radial grid of dG=0.02 with 432 points.
Transforming density augmentations to a uniform radial grid of dG=0.02 with 1166 points.
Transforming atomic orbitals to a uniform radial grid of dG=0.02 with 432 points.
Transforming overlap'd orbitals to a uniform radial grid of dG=0.02 with 432 points.
Core radius for overlap checks: 1.25 bohrs.
Reading pseudopotential file '/src/jdftx/build/pseudopotentials/GBRV/h_pbe_v1.uspp':
Title: H. Created by USPP 7.3.6 on 14-9-2013
Reference state energy: -0.458802. 1 valence electrons in orbitals:
|100> occupation: 1 eigenvalue: -0.238596
lMax: 0 lLocal: 1 QijEcut: 5
2 projectors sampled on a log grid with 395 points:
l: 0 eig: -0.238595 rCut: 0.9
l: 0 eig: 0.450000 rCut: 0.9
Transforming local potential to a uniform radial grid of dG=0.02 with 1166 points.
Transforming nonlocal projectors to a uniform radial grid of dG=0.02 with 432 points.
Transforming density augmentations to a uniform radial grid of dG=0.02 with 1166 points.
Transforming atomic orbitals to a uniform radial grid of dG=0.02 with 432 points.
Transforming overlap'd orbitals to a uniform radial grid of dG=0.02 with 432 points.
Core radius for overlap checks: 0.90 bohrs.
Folded 1 k-points by 1x1x1 to 1 k-points.
---------- Setting up k-points, bands, fillings ----------
No reducable k-points.
Computing the number of bands and number of electrons
Calculating initial fillings.
nElectrons: 8.000000 nBands: 4 nStates: 1
----- Setting up reduced wavefunction bases (one per k-point) -----
average nbasis = 14363.000 , ideal nbasis = 14418.257
---------- Setting up coulomb interaction ----------
Fluid mode embedding: using embedded box, but periodic Coulomb kernel.
(Fluid response is responsible for (approximate) separation between periodic images.)
Setting up double-sized grid for truncated Coulomb potentials:
R =
[ 30 0 0 ]
[ 0 30 0 ]
[ 0 0 30 ]
unit cell volume = 27000
G =
[ 0.20944 0 0 ]
[ 0 0.20944 0 ]
[ 0 0 0.20944 ]
Chosen fftbox size, S = [ 128 128 128 ]
Integer grid location selected as the embedding center:
Grid: [ 0 0 0 ]
Lattice: [ 0 0 0 ]
Cartesian: [ 0 0 0 ]
Constructing Wigner-Seitz cell: 6 faces (6 quadrilaterals, 0 hexagons)
Range-separation parameter for embedded mesh potentials due to point charges: 0.610753 bohrs.
Initializing van der Waals corrections
NOTE: vdW corrections apply only for interactions with fluid.
O: C6: 12.14 Eh-a0^6 R0: 2.536 a0
H: C6: 2.43 Eh-a0^6 R0: 1.892 a0
---------- Setting up ewald sum ----------
Optimum gaussian width for ewald sums = 9.965776 bohr.
Real space sum over 1331 unit cells with max indices [ 5 5 5 ]
Reciprocal space sum over 2197 terms with max indices [ 6 6 6 ]
---------- Allocating electronic variables ----------
Initializing wave functions: reading from 'common.wfns'
----- createFluidSolver() ----- (Fluid-side solver setup)
Initializing fluid molecule 'H2O'
Initializing site 'O'
Electron density: proportional to exp(-r/0.36935)erfc((r-0.51523)/0.36823) with norm 6.826
Charge density: gaussian nuclear width 0.478731 with net site charge 0.826
Polarizability: cuspless exponential with width 0.32 and norm 3.73
Hard sphere radius: 2.57003 bohrs
Positions in reference frame:
[ +0.000000 +0.000000 +0.000000 ]
Initializing site 'H'
Electron density: proportional to exp(-r/0.34641)erfc((r-0)/0.390882) with norm 0.587
Charge density: gaussian nuclear width 0.377945 with net site charge -0.413
Polarizability: cuspless exponential with width 0.39 and norm 3.3
Positions in reference frame:
[ +0.000000 -1.441945 +1.122523 ]
[ +0.000000 +1.441945 +1.122523 ]
Net charge: 0 dipole magnitude: 0.927204
Initializing spherical shell mfKernel with radius 2.61727 Bohr
deltaS corrections:
site 'O': -7.54299
site 'H': -6.83917
Correction to mu due to finite nuclear width = -0.000293985
Cavity determined by nc: 0.00142 and sigma: 0.707107
Nonlocal vdW cavity from gaussian model electron density with norm = 8 and sigma = 0.993594 bohr
Charge asymmetry in cavity with sensitivity pCavity = 36.5 e-bohr/Eh
Electrostatic cavity expanded by eta = 1.46 bohrs
Weighted density cavitation model constrained by Nbulk: 0.0049383 bohr^-3, Pvap: 3.14029 kPa, Rvdw: 2.61727 bohr and sigmaBulk: 4.62e-05 Eh/bohr^2 at T: 298 K.
Weighted density dispersion model using vdW pair potentials with single solvent site with sqrtC6eff: 0.77 SI.
Reading fluid state from 'common.fluidState'
---- Citations for features of the code used in this run ----
Software package:
R. Sundararaman, K. Letchworth-Weaver and T.A. Arias, JDFTx, available from http://jdftx.sourceforge.net (2012)
Algebraic framework:
S. Ismail-Beigi and T.A. Arias, Computer Physics Communications 128, 1 (2000)
gga-PBE exchange-correlation functional:
J.P. Perdew, K. Burke and M. Ernzerhof, Phys. Rev. Lett. 77, 3865 (1996)
Wigner-Seitz truncated coulomb interaction:
R. Sundararaman and T.A. Arias, Phys. Rev. B 87, 165122 (2013)
Van der Waals correction pair-potentials:
S. Grimme, J. Comput. Chem. 27, 1787 (2006)
Framework of Joint Density Functional Theory:
S.A. Petrosyan SA, A.A. Rigos and T.A. Arias, J Phys Chem B. 109, 15436 (2005)
Charge-asymmetric nonlocally-determined local-electric (CANDLE) solvation model:
R. Sundararaman and W.A. Goddard III, J. Chem. Phys. 142, accepted (2015)
Total energy minimization:
T.A. Arias, M.C. Payne and J.D. Joannopoulos, Phys. Rev. Lett. 69, 1077 (1992)
This list may not be complete. Please suggest additional citations and report
any other bugs by creating a ticket at https://sourceforge.net/p/jdftx/tickets
-------- Electronic minimization -----------
Will mix electronic potential at each iteration.
Linear fluid (dielectric constant: 78.4) occupying 0.977453 of unit cell: Completed after 0 iterations.
Linear fluid (dielectric constant: 78.4) occupying 0.977737 of unit cell: Completed after 9 iterations.
SCF: Cycle: 0 Etot: -17.281211411427435 dE: -2.909e-04 |deigs|: 4.550e-05 |Residual|: 1.426e-03
Linear fluid (dielectric constant: 78.4) occupying 0.977711 of unit cell: Completed after 7 iterations.
SCF: Cycle: 1 Etot: -17.281236920402669 dE: -2.551e-05 |deigs|: 1.973e-03 |Residual|: 7.669e-04
Linear fluid (dielectric constant: 78.4) occupying 0.977712 of unit cell: Completed after 2 iterations.
SCF: Cycle: 2 Etot: -17.281237596195869 dE: -6.758e-07 |deigs|: 3.769e-04 |Residual|: 1.792e-04
Linear fluid (dielectric constant: 78.4) occupying 0.977714 of unit cell: Completed after 0 iterations.
SCF: Cycle: 3 Etot: -17.281237739601522 dE: -1.434e-07 |deigs|: 1.255e-04 |Residual|: 6.386e-05
Linear fluid (dielectric constant: 78.4) occupying 0.977715 of unit cell: Completed after 2 iterations.
SCF: Cycle: 4 Etot: -17.281237729339150 dE: 1.026e-08 |deigs|: 1.792e-05 |Residual|: 3.524e-05
Linear fluid (dielectric constant: 78.4) occupying 0.977715 of unit cell: Completed after 0 iterations.
SCF: Cycle: 5 Etot: -17.281237736443032 dE: -7.104e-09 |deigs|: 3.550e-05 |Residual|: 1.335e-05
Linear fluid (dielectric constant: 78.4) occupying 0.977715 of unit cell: Completed after 0 iterations.
SCF: Cycle: 6 Etot: -17.281237737434800 dE: -9.918e-10 |deigs|: 1.077e-05 |Residual|: 5.404e-06
SCF: Converged (|Delta E|<1.000000e-08 for 2 iters).
Ionic positions in cartesian coordinates:
ion O 0.000000000000000 -0.011759668560055 0.000000000000000 1
ion H 0.000000000000000 1.126048517572887 1.451071073403969 1
ion H 0.000000000000000 1.126048517572887 -1.451071073403970 1
Forces in Cartesian coordinates:
force O 0.000000000000000 -0.002788566884640 0.000000000000000 1
force H 0.000000000000000 0.001477189114913 0.002391887388614 1
force H 0.000000000000000 0.001477189114913 -0.002391887388614 1
Energy components:
A_diel = -0.0166669582223318
Eewald = 3.8296549448260815
EH = 18.4010010476681316
Eloc = -45.8373577903111808
Enl = 2.2518749204359190
Exc = -4.3558292218590262
Exc_core = 0.0650395011027160
KE = 8.3810458189248855
IonicMinimize: Iter: 0 Etot: -17.281237737434800 |grad|_K: 1.619e-03
IonicMinimize: None of the convergence criteria satisfied after 0 iterations.
--- Lowdin population analysis ---
oxidation-state O -0.802
oxidation-state H +0.460 +0.460
Dumping 'common.wfns' ... done
Dumping 'common.fluidState' ... done
End date and time: Thu Feb 5 15:33:17 2015 (Duration: 0-0:04:00.47)
Done!
Hi Igor,
Thanks for catching this bug. I recently updated the SG14NL internal code name for a solvation model to its published name, CANDLE, but I forgot to change the testsuite to reflect that.
Your change was exactly what needed to be done, thanks for catching that!
Fixed in latest svn ...
Cheers,
Shankar
PS: Next time, if you find bugs, please report them using the ticketing interface on this site. The bug report / ticket emails sound a little bit more urgent, so they will likely get addressed even quicker!
Dear Shankar.
Thanks for such fast bug correction.
Today I have updated my jdftx files and after about 3 hours of computation it have successfully passed both tests. So the bug solved.
[user@localhost testsuite]$ make test
Running tests...
Test project /src/jdftx/build/testsuite
Start 1: vibrations
1/2 Test #1: vibrations ....................... Passed 133.02 sec
Start 2: moleculeSolvation
2/2 Test #2: moleculeSolvation ................ Passed 8902.91 sec
100% tests passed, 0 tests failed out of 2
Total Test time (real) = 9036.08 sec