qmcpack/tests/molecules/LiH_ae_gms/qmc-ref/vmc_long_noj.out

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Input file(s): vmc_long_noj.in.xml
=====================================================
QMCPACK 3.4.0
(c) Copyright 2003- QMCPACK developers
Please cite:
J. Kim et al. J. Phys. Cond. Mat. 30 195901 (2018)
https://doi.org/10.1088/1361-648X/aab9c3
Git branch: HEAD
Last git commit: ea23ca60d73178e72bd4639677282e070a3be112-dirty
Last git commit date: Tue Jun 26 14:08:17 2018 -0500
Last git commit subject: New Converged Pyscf references for FeCO6
=====================================================
Global options
MPI Nodes = 1
MPI Nodes per group = 1
MPI Group ID = 0
OMP_NUM_THREADS = 16
Precision used in this calculation, see definitions in the manual:
Base precision = double
Full precision = double
Input XML = vmc_long_noj.in.xml
Project = vmc_long_noj
date = 2018-07-05 12:57:20 CDT
host = beboplogin2
Random Number
-------------
Offset for the random number seeds based on time: 0
Range of prime numbers to use as seeds over processors and threads = 3-61
Lattice
-------
Lattice is not specified for the Open BC. Add a huge box.
Simulation cell radius = 50000.000000 bohr
Wigner-Seitz cell radius = 50000.000000 bohr
Particle Set
------------
Name: e
Initializing the lattice by the global supercell
All the species have the same mass 1.000000
Particle set size: 4
Particle Set
------------
Name: ion0
Initializing the lattice by the global supercell
Distinctive masses for each species
Particle set size: 2
Wavefunction setup:
-------------------
Name: psi0
Created SPOSet builder named 'LCAOBSet' of type molecularorbital
LCAO: SoaAtomicBasisSet<MultiQuintic,0>
Distance table for similar particles (A-A):
source/target: e
Using structure-of-arrays (SoA) data layout
Distance computations use open boundary conditions in 3D.
Distance table for dissimilar particles (A-B):
source: ion0 target: e
Using structure-of-arrays (SoA) data layout
Distance computations use open boundary conditions in 3D.
AO BasisSet for Li
Angular momentum expanded in cartesian functions x^lx y^ly z^lz according to Gamess
Using log grid with default values: ri = 0.000001 rf = 100.000000 npts = 1001
R(n,l,m,s) 0 0 0 0
R(n,l,m,s) 1 0 0 0
R(n,l,m,s) 2 0 0 0
R(n,l,m,s) 3 0 0 0
R(n,l,m,s) 4 0 0 0
R(n,l,m,s) 5 0 0 0
R(n,l,m,s) 6 1 0 0
R(n,l,m,s) 7 1 0 0
R(n,l,m,s) 8 1 0 0
R(n,l,m,s) 9 1 0 0
R(n,l,m,s) 10 1 0 0
R(n,l,m,s) 11 2 0 0
R(n,l,m,s) 12 2 0 0
R(n,l,m,s) 13 2 0 0
R(n,l,m,s) 14 2 0 0
R(n,l,m,s) 15 3 0 0
R(n,l,m,s) 16 3 0 0
R(n,l,m,s) 17 3 0 0
R(n,l,m,s) 18 4 0 0
R(n,l,m,s) 19 4 0 0
Expanding Ylm (angular function) according to Gamess using cartesian gaussians
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 3 cartesian gaussian orbitals for l= 1
Adding 3 cartesian gaussian orbitals for l= 1
Adding 3 cartesian gaussian orbitals for l= 1
Adding 3 cartesian gaussian orbitals for l= 1
Adding 3 cartesian gaussian orbitals for l= 1
Adding 6 cartesian gaussian orbitals for l= 2
Adding 6 cartesian gaussian orbitals for l= 2
Adding 6 cartesian gaussian orbitals for l= 2
Adding 6 cartesian gaussian orbitals for l= 2
Adding 10 cartesian gaussian orbitals for l= 3
Adding 10 cartesian gaussian orbitals for l= 3
Adding 10 cartesian gaussian orbitals for l= 3
Adding 15 cartesian gaussian orbitals for l= 4
Adding 15 cartesian gaussian orbitals for l= 4
Maximum Angular Momentum = 4
Number of Radial functors = 20
Basis size = 105
AO BasisSet for H
Angular momentum expanded in cartesian functions x^lx y^ly z^lz according to Gamess
Using log grid with default values: ri = 0.000001 rf = 100.000000 npts = 1001
R(n,l,m,s) 0 0 0 0
R(n,l,m,s) 1 0 0 0
R(n,l,m,s) 2 0 0 0
R(n,l,m,s) 3 0 0 0
R(n,l,m,s) 4 0 0 0
R(n,l,m,s) 5 1 0 0
R(n,l,m,s) 6 1 0 0
R(n,l,m,s) 7 1 0 0
R(n,l,m,s) 8 1 0 0
R(n,l,m,s) 9 2 0 0
R(n,l,m,s) 10 2 0 0
R(n,l,m,s) 11 2 0 0
R(n,l,m,s) 12 3 0 0
R(n,l,m,s) 13 3 0 0
R(n,l,m,s) 14 4 0 0
Expanding Ylm (angular function) according to Gamess using cartesian gaussians
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 1 cartesian gaussian orbitals for l= 0
Adding 3 cartesian gaussian orbitals for l= 1
Adding 3 cartesian gaussian orbitals for l= 1
Adding 3 cartesian gaussian orbitals for l= 1
Adding 3 cartesian gaussian orbitals for l= 1
Adding 6 cartesian gaussian orbitals for l= 2
Adding 6 cartesian gaussian orbitals for l= 2
Adding 6 cartesian gaussian orbitals for l= 2
Adding 10 cartesian gaussian orbitals for l= 3
Adding 10 cartesian gaussian orbitals for l= 3
Adding 15 cartesian gaussian orbitals for l= 4
Maximum Angular Momentum = 4
Number of Radial functors = 15
Basis size = 70
Reuse SPOSetBuilder "LCAOBSet" type MolecularOrbital
Building SPOSet '' with '' basis set.
Reuse SPOSetBuilder "LCAOBSet" type MolecularOrbital
Building SPOSet '' with '' basis set.
Creating a determinant updet group=0 sposet=updet
Reusing a SPO set updet
Using DiracDeterminantBase
Creating a determinant downdet group=1 sposet=downdet
Reusing a SPO set downdet
Using DiracDeterminantBase
FermionWF = SlaterDet
QMCHamiltonian::addOperator Kinetic to H, physical Hamiltonian
QMCHamiltonian::addOperator ElecElec to H, physical Hamiltonian
QMCHamiltonian::addOperatorType added type coulomb named ElecElec
Distance table for similar particles (A-A):
source/target: ion0
Using structure-of-arrays (SoA) data layout
Distance computations use open boundary conditions in 3D.
QMCHamiltonian::addOperator IonIon to H, physical Hamiltonian
QMCHamiltonian::addOperatorType added type coulomb named IonIon
QMCHamiltonian::addOperator ElecIon to H, physical Hamiltonian
QMCHamiltonian::addOperatorType added type coulomb named ElecIon
QMCHamiltonian::addOperator Flux to auxH
QMCHamiltonian::addOperatorType added type flux named Flux
QMCHamiltonian::add2WalkerProperty added
5 to P::PropertyList
0 to P::Collectables
starting Index of the observables in P::PropertyList = 9
ParticleSetPool::randomize
<init source="ion0" target="e">
</init>
Initialization Execution time = 0.0548 secs
=========================================================
Summary of QMC systems
=========================================================
ParticleSetPool has:
ParticleSet e : 0 2 4
4
u -1.2764429951e-01 1.0786768198e+00 -5.2303108332e-01
u 1.1865860969e+00 1.4443538095e-01 1.5668477401e-01
d -3.2702253335e-02 -2.0933875752e-01 -1.1868050009e+00
d -4.6087073765e-01 8.7889681620e-01 3.6984216991e+00
ParticleSet ion0 : 0 1 2
2
Li 0.0000000000e+00 0.0000000000e+00 0.0000000000e+00
H 0.0000000000e+00 0.0000000000e+00 3.0139242100e+00
Hamiltonian h0
Kinetic Kinetic energy
ElecElec CoulombAA source/target e
IonIon CoulombAA source/target ion0
ElecIon CoulombAB source=ion0
=========================================================
Start VMCSingleOMP
File Root vmc_long_noj.s000 append = no
=========================================================
Adding 16 walkers to 0 existing sets
Total number of walkers: 1.6000000000e+01
Total weight: 1.6000000000e+01
Resetting Properties of the walkers 1 x 14
<vmc function="put">
qmc_counter=0 my_counter=0
time step = 4.0000000000e-01
blocks = 200
steps = 30000
substeps = 3
current = 0
target samples = 0.0000000000e+00
walkers/mpi = 16
stepsbetweensamples = 6030000
<parameter name="blocks" condition="int">200</parameter>
<parameter name="blocks_between_recompute" condition="int">0</parameter>
<parameter name="check_properties" condition="int">100</parameter>
<parameter name="checkproperties" condition="int">100</parameter>
<parameter name="current" condition="int">0</parameter>
<parameter name="dmcwalkersperthread" condition="real">0.0000000000e+00</parameter>
<parameter name="maxcpusecs" condition="real">3.6000000000e+05</parameter>
<parameter name="record_configs" condition="int">0</parameter>
<parameter name="record_walkers" condition="int">6030000</parameter>
<parameter name="recordconfigs" condition="int">0</parameter>
<parameter name="recordwalkers" condition="int">6030000</parameter>
<parameter name="rewind" condition="int">0</parameter>
<parameter name="samples" condition="real">0.0000000000e+00</parameter>
<parameter name="samplesperthread" condition="real">0.0000000000e+00</parameter>
<parameter name="steps" condition="int">30000</parameter>
<parameter name="stepsbetweensamples" condition="int">6030000</parameter>
<parameter name="store_configs" condition="int">0</parameter>
<parameter name="storeconfigs" condition="int">0</parameter>
<parameter name="sub_steps" condition="int">3</parameter>
<parameter name="substeps" condition="int">3</parameter>
<parameter name="tau" condition="au">4.0000000000e-01</parameter>
<parameter name="time_step" condition="au">4.0000000000e-01</parameter>
<parameter name="timestep" condition="au">4.0000000000e-01</parameter>
<parameter name="use_drift" condition="string">yes</parameter>
<parameter name="usedrift" condition="string">yes</parameter>
<parameter name="walkers" condition="int">16</parameter>
<parameter name="warmup_steps" condition="int">50</parameter>
<parameter name="warmupsteps" condition="int">50</parameter>
DumpConfig==false Nothing (configurations, state) will be saved.
Walker Samples are dumped every 6030000 steps.
</vmc>
Adding a default LocalEnergyEstimator for the MainEstimator
CloneManager::makeClones makes 16 clones for W/Psi/H.
Cloning methods for both Psi and H are used
===== Memory Usage before cloning =====
Available memory on node 0, free + buffers : 119401 MB
Memory footprint by rank 0 on node 0 : 62 MB
==================================================
===== Memory Usage after cloning =====
Available memory on node 0, free + buffers : 119394 MB
Memory footprint by rank 0 on node 0 : 68 MB
==================================================
Initial partition of walkers 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16
Using Particle by Particle moves
Walker moves with drift
Total Sample Size =0
Walker distribution on root = 0 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16
===== Memory Usage after the buffer registration =====
Available memory on node 0, free + buffers : 119378 MB
Memory footprint by rank 0 on node 0 : 85 MB
==================================================
Anonymous Buffer size per walker : 768 Bytes.
MEMORY increase 0 MB VMCSingleOMP::resetRun
====================================================
SimpleFixedNodeBranch::finalize after a VMC block
QMC counter = 0
time step = 0.4
reference energy = -7.78328
reference variance = 0.894547
====================================================
QMC Execution time = 3.1217e+02 secs
Total Execution time = 3.1217e+02 secs
=========================================================
A new xml input file : vmc_long_noj.s000.cont.xml