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Grid/HMC/Mobius2p1p1fEOFA_4Gev.cc
Chulwoo Jung 982a60536c Checking in before forking
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/*************************************************************************************
Grid physics library, www.github.com/paboyle/Grid
Source file:
Copyright (C) 2015-2016
Author: Peter Boyle <pabobyle@ph.ed.ac.uk>
Author: Guido Cossu
Author: David Murphy
Author: Chulwoo Jung <chulwoo@bnl.gov>
This program is free software; you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation; either version 2 of the License, or
(at your option) any later version.
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License along
with this program; if not, write to the Free Software Foundation, Inc.,
51 Franklin Street, Fifth Floor, Boston, MA 02110-1301 USA.
See the full license in the file "LICENSE" in the top level distribution
directory
*************************************************************************************/
/* END LEGAL */
#include <Grid/Grid.h>
#ifdef GRID_DEFAULT_PRECISION_DOUBLE
#define MIXED_PRECISION
#endif
// second level EOFA
#undef EOFA_H
#define USE_OBC
#undef DO_IMPLICIT
NAMESPACE_BEGIN(Grid);
/*
* Need a plan for gauge field update for mixed precision in HMC (2x speed up)
* -- Store the single prec action operator.
* -- Clone the gauge field from the operator function argument.
* -- Build the mixed precision operator dynamically from the passed operator and single prec clone.
*/
template<class FermionOperatorD, class FermionOperatorF, class SchurOperatorD, class SchurOperatorF>
class MixedPrecisionConjugateGradientOperatorFunction : public OperatorFunction<typename FermionOperatorD::FermionField> {
public:
typedef typename FermionOperatorD::FermionField FieldD;
typedef typename FermionOperatorF::FermionField FieldF;
using OperatorFunction<FieldD>::operator();
RealD Tolerance;
RealD InnerTolerance; //Initial tolerance for inner CG. Defaults to Tolerance but can be changed
Integer MaxInnerIterations;
Integer MaxOuterIterations;
GridBase* SinglePrecGrid4; //Grid for single-precision fields
GridBase* SinglePrecGrid5; //Grid for single-precision fields
RealD OuterLoopNormMult; //Stop the outer loop and move to a final double prec solve when the residual is OuterLoopNormMult * Tolerance
FermionOperatorF &FermOpF;
FermionOperatorD &FermOpD;;
SchurOperatorF &LinOpF;
SchurOperatorD &LinOpD;
Integer TotalInnerIterations; //Number of inner CG iterations
Integer TotalOuterIterations; //Number of restarts
Integer TotalFinalStepIterations; //Number of CG iterations in final patch-up step
MixedPrecisionConjugateGradientOperatorFunction(RealD tol,
Integer maxinnerit,
Integer maxouterit,
GridBase* _sp_grid4,
GridBase* _sp_grid5,
FermionOperatorF &_FermOpF,
FermionOperatorD &_FermOpD,
SchurOperatorF &_LinOpF,
SchurOperatorD &_LinOpD):
LinOpF(_LinOpF),
LinOpD(_LinOpD),
FermOpF(_FermOpF),
FermOpD(_FermOpD),
Tolerance(tol),
InnerTolerance(tol),
MaxInnerIterations(maxinnerit),
MaxOuterIterations(maxouterit),
SinglePrecGrid4(_sp_grid4),
SinglePrecGrid5(_sp_grid5),
OuterLoopNormMult(100.)
{
/* Debugging instances of objects; references are stored
std::cout << GridLogMessage << " Mixed precision CG wrapper LinOpF " <<std::hex<< &LinOpF<<std::dec <<std::endl;
std::cout << GridLogMessage << " Mixed precision CG wrapper LinOpD " <<std::hex<< &LinOpD<<std::dec <<std::endl;
std::cout << GridLogMessage << " Mixed precision CG wrapper FermOpF " <<std::hex<< &FermOpF<<std::dec <<std::endl;
std::cout << GridLogMessage << " Mixed precision CG wrapper FermOpD " <<std::hex<< &FermOpD<<std::dec <<std::endl;
*/
};
void operator()(LinearOperatorBase<FieldD> &LinOpU, const FieldD &src, FieldD &psi) {
std::cout << GridLogMessage << " Mixed precision CG wrapper operator() "<<std::endl;
SchurOperatorD * SchurOpU = static_cast<SchurOperatorD *>(&LinOpU);
// std::cout << GridLogMessage << " Mixed precision CG wrapper operator() FermOpU " <<std::hex<< &(SchurOpU->_Mat)<<std::dec <<std::endl;
// std::cout << GridLogMessage << " Mixed precision CG wrapper operator() FermOpD " <<std::hex<< &(LinOpD._Mat) <<std::dec <<std::endl;
// Assumption made in code to extract gauge field
// We could avoid storing LinopD reference alltogether ?
assert(&(SchurOpU->_Mat)==&(LinOpD._Mat));
////////////////////////////////////////////////////////////////////////////////////
// Must snarf a single precision copy of the gauge field in Linop_d argument
////////////////////////////////////////////////////////////////////////////////////
typedef typename FermionOperatorF::GaugeField GaugeFieldF;
typedef typename FermionOperatorF::GaugeLinkField GaugeLinkFieldF;
typedef typename FermionOperatorD::GaugeField GaugeFieldD;
typedef typename FermionOperatorD::GaugeLinkField GaugeLinkFieldD;
GridBase * GridPtrF = SinglePrecGrid4;
GridBase * GridPtrD = FermOpD.Umu.Grid();
GaugeFieldF U_f (GridPtrF);
GaugeLinkFieldF Umu_f(GridPtrF);
// std::cout << " Dim gauge field "<<GridPtrF->Nd()<<std::endl; // 4d
// std::cout << " Dim gauge field "<<GridPtrD->Nd()<<std::endl; // 4d
////////////////////////////////////////////////////////////////////////////////////
// Moving this to a Clone method of fermion operator would allow to duplicate the
// physics parameters and decrease gauge field copies
////////////////////////////////////////////////////////////////////////////////////
GaugeLinkFieldD Umu_d(GridPtrD);
for(int mu=0;mu<Nd*2;mu++){
Umu_d = PeekIndex<LorentzIndex>(FermOpD.Umu, mu);
precisionChange(Umu_f,Umu_d);
PokeIndex<LorentzIndex>(FermOpF.Umu, Umu_f, mu);
}
pickCheckerboard(Even,FermOpF.UmuEven,FermOpF.Umu);
pickCheckerboard(Odd ,FermOpF.UmuOdd ,FermOpF.Umu);
////////////////////////////////////////////////////////////////////////////////////
// Make a mixed precision conjugate gradient
////////////////////////////////////////////////////////////////////////////////////
MixedPrecisionConjugateGradient<FieldD,FieldF> MPCG(Tolerance,MaxInnerIterations,MaxOuterIterations,SinglePrecGrid5,LinOpF,LinOpD);
std::cout << GridLogMessage << "Calling mixed precision Conjugate Gradient" <<std::endl;
MPCG(src,psi);
}
};
NAMESPACE_END(Grid);
int main(int argc, char **argv) {
using namespace Grid;
Grid_init(&argc, &argv);
int threads = GridThread::GetThreads();
// here make a routine to print all the relevant information on the run
std::cout << GridLogMessage << "Grid is setup to use " << threads << " threads" << std::endl;
// Typedefs to simplify notation
typedef WilsonImplR FermionImplPolicy;
typedef MobiusFermionD FermionAction;
typedef MobiusFermionF FermionActionF;
typedef MobiusEOFAFermionD FermionEOFAAction;
typedef MobiusEOFAFermionF FermionEOFAActionF;
typedef typename FermionAction::FermionField FermionField;
typedef typename FermionActionF::FermionField FermionFieldF;
typedef Grid::XmlReader Serialiser;
//::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::::
HMCparameters HMCparams;
#if 1
{
XmlReader HMCrd("HMCparameters.xml");
read(HMCrd,"HMCparameters",HMCparams);
}
#else
{
// HMCparameters HMCparams;
// "[HotStart, ColdStart, TepidStart, CheckpointStart]\n";
// HMCparams.StartingType =std::string("ColdStart");
HMCparams.StartingType =std::string("CheckpointStart");
HMCparams.StartTrajectory =7;
HMCparams.SW =4;
HMCparams.Trajectories =1000;
HMCparams.NoMetropolisUntil=0;
HMCparams.MD.name =std::string("Force Gradient");
HMCparams.MD.MDsteps = 10;
HMCparams.MD.trajL = 1.0;
}
#endif
#ifdef DO_IMPLICIT
// typedef GenericHMCRunner<ImplicitLeapFrog> HMCWrapper;
typedef GenericHMCRunner<ImplicitMinimumNorm2> HMCWrapper;
HMCparams.MD.name =std::string("ImplicitMinimumNorm2");
#else
// typedef GenericHMCRunner<LeapFrog> HMCWrapper;
// typedef GenericHMCRunner<ForceGradient> HMCWrapper;
typedef GenericHMCRunner<MinimumNorm2> HMCWrapper;
HMCparams.MD.name =std::string("MinimumNorm2");
#endif
std::cout << GridLogMessage<< HMCparams <<std::endl;
HMCWrapper TheHMC(HMCparams);
TheHMC.ReadCommandLine(argc, argv);
{
XmlWriter HMCwr("HMCparameters.xml.out");
write(HMCwr,"HMCparameters",TheHMC.Parameters);
}
// Grid from the command line arguments --grid and --mpi
TheHMC.Resources.AddFourDimGrid("gauge"); // use default simd lanes decomposition
CheckpointerParameters CPparams;
CPparams.config_prefix = "ckpoint_lat";
CPparams.rng_prefix = "ckpoint_rng";
CPparams.saveInterval = 1;
CPparams.format = "IEEE64BIG";
TheHMC.Resources.LoadNerscCheckpointer(CPparams);
RNGModuleParameters RNGpar;
RNGpar.serial_seeds = "1 2 3 4 5";
RNGpar.parallel_seeds = "6 7 8 9 10";
TheHMC.Resources.SetRNGSeeds(RNGpar);
// Construct observables
// here there is too much indirection
typedef PlaquetteMod<HMCWrapper::ImplPolicy> PlaqObs;
TheHMC.Resources.AddObservable<PlaqObs>();
//////////////////////////////////////////////
const int Ls = 12;
Real beta = 5.983;
std::cout << GridLogMessage << " beta "<< beta << std::endl;
Real light_mass = 0.00049;
Real strange_mass = 0.0158;
Real charm_mass = 0.191;
Real pv_mass = 1.0;
RealD M5 = 1.4;
RealD b = 2.0;
RealD c = 1.0;
// Copied from paper
// std::vector<Real> hasenbusch({ 0.045 }); // Paper values from F1 incorrect run
std::vector<Real> hasenbusch({ 0.0038, 0.0145, 0.045, 0.108 , 0.25, 0.51 }); // Paper values from F1 incorrect run
std::vector<Real> hasenbusch2({ 0.4 }); // Paper values from F1 incorrect run
// RealD eofa_mass=0.05 ;
///////////////////////////////////////////////////////////////////////////////////////////////
//Bad choices with large dH. Equalising force L2 norm was not wise.
///////////////////////////////////////////////////////////////////////////////////////////////
//std::vector<Real> hasenbusch({ 0.03, 0.2, 0.3, 0.5, 0.8 });
auto GridPtr = TheHMC.Resources.GetCartesian();
auto GridRBPtr = TheHMC.Resources.GetRBCartesian();
auto FGrid = SpaceTimeGrid::makeFiveDimGrid(Ls,GridPtr);
auto FrbGrid = SpaceTimeGrid::makeFiveDimRedBlackGrid(Ls,GridPtr);
Coordinate latt = GridDefaultLatt();
Coordinate mpi = GridDefaultMpi();
Coordinate simdF = GridDefaultSimd(Nd,vComplexF::Nsimd());
Coordinate simdD = GridDefaultSimd(Nd,vComplexD::Nsimd());
auto GridPtrF = SpaceTimeGrid::makeFourDimGrid(latt,simdF,mpi);
//auto UGrid_f = SpaceTimeGrid::makeFourDimGrid(latt,simdF,mpi);
auto GridRBPtrF = SpaceTimeGrid::makeFourDimRedBlackGrid(GridPtrF);
auto FGridF = SpaceTimeGrid::makeFiveDimGrid(Ls,GridPtrF);
auto FrbGridF = SpaceTimeGrid::makeFiveDimRedBlackGrid(Ls,GridPtrF);
#ifndef USE_OBC
// IwasakiGaugeActionR GaugeAction(beta);
WilsonGaugeActionR GaugeAction(beta);
#else
std::vector<Complex> boundaryG = {1,1,1,0};
WilsonGaugeActionR::ImplParams ParamsG(boundaryG);
WilsonGaugeActionR GaugeAction(beta,ParamsG);
#endif
// temporarily need a gauge field
LatticeGaugeField U(GridPtr);
LatticeGaugeFieldF UF(GridPtrF);
// These lines are unecessary if BC are all periodic
#ifndef USE_OBC
std::vector<Complex> boundary = {1,1,1,-1};
#else
std::vector<Complex> boundary = {1,1,1,0};
#endif
FermionAction::ImplParams Params(boundary);
FermionActionF::ImplParams ParamsF(boundary);
double ActionStoppingCondition = 1e-8;
double DerivativeStoppingCondition = 1e-8;
double MaxCGIterations = 100000;
////////////////////////////////////
// Collect actions
////////////////////////////////////
ActionLevel<HMCWrapper::Field> Level1(1);
ActionLevel<HMCWrapper::Field> Level2(HMCparams.SW);
////////////////////////////////////
// Strange action
////////////////////////////////////
typedef SchurDiagMooeeOperator<FermionActionF,FermionFieldF> LinearOperatorF;
typedef SchurDiagMooeeOperator<FermionAction ,FermionField > LinearOperatorD;
typedef SchurDiagMooeeOperator<FermionEOFAActionF,FermionFieldF> LinearOperatorEOFAF;
typedef SchurDiagMooeeOperator<FermionEOFAAction ,FermionField > LinearOperatorEOFAD;
typedef MixedPrecisionConjugateGradientOperatorFunction<MobiusFermionD,MobiusFermionF,LinearOperatorD,LinearOperatorF> MxPCG;
typedef MixedPrecisionConjugateGradientOperatorFunction<MobiusEOFAFermionD,MobiusEOFAFermionF,LinearOperatorEOFAD,LinearOperatorEOFAF> MxPCG_EOFA;
// DJM: setup for EOFA ratio (Mobius)
OneFlavourRationalParams OFRp;
OFRp.lo = 0.99; // How do I know this on F1?
OFRp.hi = 20;
OFRp.MaxIter = 100000;
OFRp.tolerance= 1.0e-12;
OFRp.degree = 12;
OFRp.precision= 50;
MobiusEOFAFermionD Strange_Op_L (U , *FGrid , *FrbGrid , *GridPtr , *GridRBPtr , strange_mass, strange_mass, charm_mass, 0.0, -1, M5, b, c);
MobiusEOFAFermionF Strange_Op_LF(UF, *FGridF, *FrbGridF, *GridPtrF, *GridRBPtrF, strange_mass, strange_mass, charm_mass, 0.0, -1, M5, b, c);
MobiusEOFAFermionD Strange_Op_R (U , *FGrid , *FrbGrid , *GridPtr , *GridRBPtr , charm_mass, strange_mass, charm_mass, -1.0, 1, M5, b, c);
MobiusEOFAFermionF Strange_Op_RF(UF, *FGridF, *FrbGridF, *GridPtrF, *GridRBPtrF, charm_mass, strange_mass, charm_mass, -1.0, 1, M5, b, c);
#ifdef EOFA_H
MobiusEOFAFermionD Strange2_Op_L (U , *FGrid , *FrbGrid , *GridPtr , *GridRBPtr , eofa_mass, eofa_mass, charm_mass , 0.0, -1, M5, b, c);
MobiusEOFAFermionF Strange2_Op_LF(UF, *FGridF, *FrbGridF, *GridPtrF, *GridRBPtrF, eofa_mass, eofa_mass, charm_mass , 0.0, -1, M5, b, c);
MobiusEOFAFermionD Strange2_Op_R (U , *FGrid , *FrbGrid , *GridPtr , *GridRBPtr , charm_mass , eofa_mass, charm_mass , -1.0, 1, M5, b, c);
MobiusEOFAFermionF Strange2_Op_RF(UF, *FGridF, *FrbGridF, *GridPtrF, *GridRBPtrF, charm_mass , eofa_mass, charm_mass , -1.0, 1, M5, b, c);
#endif
ConjugateGradient<FermionField> ActionCG(ActionStoppingCondition,MaxCGIterations);
ConjugateGradient<FermionField> DerivativeCG(DerivativeStoppingCondition,MaxCGIterations);
#ifdef MIXED_PRECISION
const int MX_inner = 5000;
// Mixed precision EOFA
LinearOperatorEOFAD Strange_LinOp_L (Strange_Op_L);
LinearOperatorEOFAD Strange_LinOp_R (Strange_Op_R);
LinearOperatorEOFAF Strange_LinOp_LF(Strange_Op_LF);
LinearOperatorEOFAF Strange_LinOp_RF(Strange_Op_RF);
#ifdef EOFA_H
// Mixed precision EOFA
LinearOperatorEOFAD Strange2_LinOp_L (Strange2_Op_L);
LinearOperatorEOFAD Strange2_LinOp_R (Strange2_Op_R);
LinearOperatorEOFAF Strange2_LinOp_LF(Strange2_Op_LF);
LinearOperatorEOFAF Strange2_LinOp_RF(Strange2_Op_RF);
#endif
MxPCG_EOFA ActionCGL(ActionStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange_Op_LF,Strange_Op_L,
Strange_LinOp_LF,Strange_LinOp_L);
#ifdef EOFA_H
MxPCG_EOFA ActionCGL2(ActionStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange2_Op_LF,Strange2_Op_L,
Strange2_LinOp_LF,Strange2_LinOp_L);
#endif
MxPCG_EOFA DerivativeCGL(DerivativeStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange_Op_LF,Strange_Op_L,
Strange_LinOp_LF,Strange_LinOp_L);
#ifdef EOFA_H
MxPCG_EOFA DerivativeCGL2(DerivativeStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange2_Op_LF,Strange2_Op_L,
Strange2_LinOp_LF,Strange2_LinOp_L);
#endif
MxPCG_EOFA ActionCGR(ActionStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange_Op_RF,Strange_Op_R,
Strange_LinOp_RF,Strange_LinOp_R);
#ifdef EOFA_H
MxPCG_EOFA ActionCGR2(ActionStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange2_Op_RF,Strange2_Op_R,
Strange2_LinOp_RF,Strange2_LinOp_R);
#endif
MxPCG_EOFA DerivativeCGR(DerivativeStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange_Op_RF,Strange_Op_R,
Strange_LinOp_RF,Strange_LinOp_R);
#ifdef EOFA_H
MxPCG_EOFA DerivativeCGR2(DerivativeStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
Strange2_Op_RF,Strange2_Op_R,
Strange2_LinOp_RF,Strange2_LinOp_R);
#endif
ExactOneFlavourRatioPseudoFermionAction<FermionImplPolicy>
EOFA(Strange_Op_L, Strange_Op_R,
ActionCG,
ActionCGL, ActionCGR,
DerivativeCGL, DerivativeCGR,
OFRp, true);
#ifdef EOFA_H
ExactOneFlavourRatioPseudoFermionAction<FermionImplPolicy>
EOFA2(Strange2_Op_L, Strange2_Op_R,
ActionCG,
ActionCGL2, ActionCGR2,
DerivativeCGL2, DerivativeCGR2,
OFRp, true);
#endif
Level1.push_back(&EOFA);
#ifdef EOFA_H
Level1.push_back(&EOFA2);
#endif
#else
ExactOneFlavourRatioPseudoFermionAction<FermionImplPolicy>
EOFA(Strange_Op_L, Strange_Op_R,
ActionCG,
ActionCG, ActionCG,
ActionCG, ActionCG,
// DerivativeCG, DerivativeCG,
OFRp, true);
Level1.push_back(&EOFA);
#endif
////////////////////////////////////
// up down action
////////////////////////////////////
std::vector<Real> light_den;
std::vector<Real> light_num;
int n_hasenbusch = hasenbusch.size();
light_den.push_back(light_mass);
for(int h=0;h<n_hasenbusch;h++){
light_den.push_back(hasenbusch[h]);
light_num.push_back(hasenbusch[h]);
}
light_num.push_back(pv_mass);
int n_hasenbusch2 = hasenbusch2.size();
light_den.push_back(charm_mass);
for(int h=0;h<n_hasenbusch2;h++){
light_den.push_back(hasenbusch2[h]);
light_num.push_back(hasenbusch2[h]);
}
light_num.push_back(pv_mass);
//////////////////////////////////////////////////////////////
// Forced to replicate the MxPCG and DenominatorsF etc.. because
// there is no convenient way to "Clone" physics params from double op
// into single op for any operator pair.
// Same issue prevents using MxPCG in the Heatbath step
//////////////////////////////////////////////////////////////
std::vector<FermionAction *> Numerators;
std::vector<FermionAction *> Denominators;
std::vector<TwoFlavourEvenOddRatioPseudoFermionAction<FermionImplPolicy> *> Quotients;
std::vector<MxPCG *> ActionMPCG;
std::vector<MxPCG *> MPCG;
std::vector<FermionActionF *> DenominatorsF;
std::vector<LinearOperatorD *> LinOpD;
std::vector<LinearOperatorF *> LinOpF;
for(int h=0;h<light_den.size();h++){
std::cout << GridLogMessage << " 2f quotient Action "<< light_num[h] << " / " << light_den[h]<< std::endl;
Numerators.push_back (new FermionAction(U,*FGrid,*FrbGrid,*GridPtr,*GridRBPtr,light_num[h],M5,b,c, Params));
Denominators.push_back(new FermionAction(U,*FGrid,*FrbGrid,*GridPtr,*GridRBPtr,light_den[h],M5,b,c, Params));
#ifdef MIXED_PRECISION
////////////////////////////////////////////////////////////////////////////
// Mixed precision CG for 2f force
////////////////////////////////////////////////////////////////////////////
double DerivativeStoppingConditionLoose = 1e-8;
DenominatorsF.push_back(new FermionActionF(UF,*FGridF,*FrbGridF,*GridPtrF,*GridRBPtrF,light_den[h],M5,b,c, ParamsF));
LinOpD.push_back(new LinearOperatorD(*Denominators[h]));
LinOpF.push_back(new LinearOperatorF(*DenominatorsF[h]));
double conv = DerivativeStoppingCondition;
if (h<3) conv= DerivativeStoppingConditionLoose; // Relax on first two hasenbusch factors
MPCG.push_back(new MxPCG(conv,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
*DenominatorsF[h],*Denominators[h],
*LinOpF[h], *LinOpD[h]) );
ActionMPCG.push_back(new MxPCG(ActionStoppingCondition,
MX_inner,
MaxCGIterations,
GridPtrF,
FrbGridF,
*DenominatorsF[h],*Denominators[h],
*LinOpF[h], *LinOpD[h]) );
// Heatbath not mixed yet. As inverts numerators not so important as raised mass.
Quotients.push_back (new TwoFlavourEvenOddRatioPseudoFermionAction<FermionImplPolicy>(*Numerators[h],*Denominators[h],*MPCG[h],*ActionMPCG[h],ActionCG));
#else
////////////////////////////////////////////////////////////////////////////
// Standard CG for 2f force
////////////////////////////////////////////////////////////////////////////
Quotients.push_back (new TwoFlavourEvenOddRatioPseudoFermionAction<FermionImplPolicy>(*Numerators[h],*Denominators[h],DerivativeCG,ActionCG));
#endif
}
for(int h=0;h<n_hasenbusch+1;h++){
Level1.push_back(Quotients[h]);
}
/////////////////////////////////////////////////////////////
// Gauge action
/////////////////////////////////////////////////////////////
Level2.push_back(&GaugeAction);
TheHMC.TheAction.push_back(Level1);
TheHMC.TheAction.push_back(Level2);
std::cout << GridLogMessage << " Action complete "<< std::endl;
/////////////////////////////////////////////////////////////
// HMC parameters are serialisable
NoSmearing<HMCWrapper::ImplPolicy> S;
#ifndef DO_IMPLICIT
TrivialMetric<HMCWrapper::ImplPolicy::Field> Mtr;
#else
LaplacianRatParams gpar(2),mpar(2);
gpar.offset = 1.;
gpar.a0[0] = 500.;
gpar.a1[0] = 0.;
gpar.b0[0] = 0.25;
gpar.b1[0] = 1.;
gpar.a0[1] = -500.;
gpar.a1[1] = 0.;
gpar.b0[1] = 0.36;
gpar.b1[1] = 1.2;
gpar.b2=1.;
mpar.offset = 1.;
mpar.a0[0] = -0.850891906532;
mpar.a1[0] = -1.54707654538;
mpar. b0[0] = 2.85557166137;
mpar. b1[0] = 5.74194794773;
mpar.a0[1] = -13.5120056831218384729709214298;
mpar.a1[1] = 1.54707654538396877086370295729;
mpar.b0[1] = 19.2921090880640520026645390317;
mpar.b1[1] = -3.54194794773029020262811172870;
mpar.b2=1.;
for(int i=0;i<2;i++){
gpar.a1[i] *=16.;
gpar.b1[i] *=16.;
mpar.a1[i] *=16.;
mpar.b1[i] *=16.;
}
gpar.b2 *= 16.*16.;
mpar.b2 *= 16.*16.;
ConjugateGradient<LatticeGaugeField> CG(1.0e-8,10000);
LaplacianParams LapPar(0.0001, 1.0, 10000, 1e-8, 12, 64);
std::cout << GridLogMessage << "LaplacianRat " << std::endl;
gpar.tolerance=HMCparams.MD.RMHMCCGTol;
mpar.tolerance=HMCparams.MD.RMHMCCGTol;
std::cout << GridLogMessage << "gpar offset= " << gpar.offset <<std::endl;
std::cout << GridLogMessage << " a0= " << gpar.a0 <<std::endl;
std::cout << GridLogMessage << " a1= " << gpar.a1 <<std::endl;
std::cout << GridLogMessage << " b0= " << gpar.b0 <<std::endl;
std::cout << GridLogMessage << " b1= " << gpar.b1 <<std::endl;
std::cout << GridLogMessage << " b2= " << gpar.b2 <<std::endl ;;
std::cout << GridLogMessage << "mpar offset= " << mpar.offset <<std::endl;
std::cout << GridLogMessage << " a0= " << mpar.a0 <<std::endl;
std::cout << GridLogMessage << " a1= " << mpar.a1 <<std::endl;
std::cout << GridLogMessage << " b0= " << mpar.b0 <<std::endl;
std::cout << GridLogMessage << " b1= " << mpar.b1 <<std::endl;
std::cout << GridLogMessage << " b2= " << mpar.b2 <<std::endl;
// Assumes PeriodicGimplR or D at the moment
auto UGrid = TheHMC.Resources.GetCartesian("gauge");
// auto UGrid_f = SpaceTimeGrid::makeFourDimGrid(latt,simdF,mpi);
// auto GridPtrF = SpaceTimeGrid::makeFourDimGrid(latt,simdF,mpi);
// std::cout << GridLogMessage << " UGrid= " << UGrid <<std::endl;
// std::cout << GridLogMessage << " UGrid_f= " << UGrid_f <<std::endl;
LaplacianAdjointRat<HMCWrapper::ImplPolicy, PeriodicGimplF> Mtr(UGrid, GridPtrF ,CG, gpar, mpar);
#endif
std::cout << GridLogMessage << " Running the HMC "<< std::endl;
TheHMC.Run(S,Mtr); // no smearing
Grid_finalize();
} // main
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