MOAB: Mesh Oriented datABase
(version 5.4.1)
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#include "moab/Core.hpp"
#include "moab_mpi.h"
#include "moab/ParallelComm.hpp"
#include "MBParallelConventions.h"
#include "moab/iMOAB.h"
#include "TestUtil.hpp"
#include "moab/CpuTimer.hpp"
#include "moab/ProgOptions.hpp"
#include <iostream>
#include <sstream>
#include "imoab_coupler_utils.hpp"
Go to the source code of this file.
Functions | |
int | main (int argc, char *argv[]) |
int main | ( | int | argc, |
char * | argv[] | ||
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Definition at line 38 of file imoab_map_target.cpp.
References ProgOptions::addOpt(), atmFilename, CHECKIERR, cmpatm, create_group_and_comm(), create_joint_comm_group(), DENSE_DOUBLE, DENSE_INTEGER, endG1, endG2, fileWriteOptions(), groupTasks, ierr, iMOAB_AppID, iMOAB_DefineTagStorage(), iMOAB_DeregisterApplication(), iMOAB_Finalize(), iMOAB_GetDoubleTagStorage(), iMOAB_GetIntTagStorage(), iMOAB_GetMeshInfo(), iMOAB_Initialize(), iMOAB_LoadMesh(), iMOAB_RegisterApplication(), iMOAB_SetDoubleTagStorage(), iMOAB_WriteLocalMesh(), iMOAB_WriteMesh(), jgroup, MPI_COMM_WORLD, nghlay, numProcesses, ProgOptions::parseCommandLine(), POP_TIMER, PUSH_TIMER, rankInAtmComm, rankInGlobalComm, readopts(), setup_component_coupler_meshes(), startG1, and startG2.
{ int ierr; int rankInGlobalComm, numProcesses; MPI_Group jgroup; std::string readopts( "PARALLEL=READ_PART;PARTITION=PARALLEL_PARTITION;PARALLEL_RESOLVE_SHARED_ENTS" ); // Timer data moab::CpuTimer timer; double timer_ops; std::string opName; MPI_Init( &argc, &argv ); MPI_Comm_rank( MPI_COMM_WORLD, &rankInGlobalComm ); MPI_Comm_size( MPI_COMM_WORLD, &numProcesses ); MPI_Comm_group( MPI_COMM_WORLD, &jgroup ); // all processes in jgroup std::string atmFilename = TestDir + "unittest/srcWithSolnTag.h5m"; // on a regular case, 5 ATM, 6 CPLATM (ATMX), 17 OCN , 18 CPLOCN (OCNX) ; // intx atm/ocn is not in e3sm yet, give a number // 6 * 100+ 18 = 618 : atmocnid // 9 LND, 10 CPLLND // 6 * 100 + 10 = 610 atmlndid: // cmpatm is for atm on atm pes // cmpocn is for ocean, on ocean pe // cplatm is for atm on coupler pes // cplocn is for ocean on coupelr pes // atmocnid is for intx atm / ocn on coupler pes // int rankInAtmComm = -1; int cmpatm = 5, cplatm = 6; // component ids are unique over all pes, and established in advance; std::string ocnFilename = TestDir + "unittest/outTri15_8.h5m"; std::string mapFilename = TestDir + "unittest/mapNE20_FV15.nc"; // this is a netcdf file! std::string baseline = TestDir + "unittest/baseline2.txt"; int rankInOcnComm = -1; int cmpocn = 17, cplocn = 18, atmocnid = 618; // component ids are unique over all pes, and established in advance; int rankInCouComm = -1; int nghlay = 0; // number of ghost layers for loading the file std::vector< int > groupTasks; int startG1 = 0, startG2 = 0, endG1 = numProcesses - 1, endG2 = numProcesses - 1; int startG4 = startG1, endG4 = endG1; // these are for coupler layout int context_id; // used now for freeing buffers int repartitioner_scheme = 0; #ifdef MOAB_HAVE_ZOLTAN repartitioner_scheme = 2; // use the graph partitioner in that caseS #endif // default: load atm / source on 2 proc, ocean / target on 2, // load map on 2 also, in parallel, distributed by rows (which is very bad actually for ocean mesh, because // probably all source cells will be involved in coverage mesh on both tasks ProgOptions opts; opts.addOpt< std::string >( "atmosphere,t", "atm mesh filename (source)", &atmFilename ); opts.addOpt< std::string >( "ocean,m", "ocean mesh filename (target)", &ocnFilename ); opts.addOpt< std::string >( "map_file,w", "map file from source to target", &mapFilename ); opts.addOpt< int >( "startAtm,a", "start task for atmosphere layout", &startG1 ); opts.addOpt< int >( "endAtm,b", "end task for atmosphere layout", &endG1 ); opts.addOpt< int >( "startOcn,c", "start task for ocean layout", &startG2 ); opts.addOpt< int >( "endOcn,d", "end task for ocean layout", &endG2 ); opts.addOpt< int >( "startCoupler,g", "start task for coupler layout", &startG4 ); opts.addOpt< int >( "endCoupler,j", "end task for coupler layout", &endG4 ); int types[2] = { 3, 3 }; // type of source and target; 1 = SE, 2,= PC, 3 = FV int disc_orders[2] = { 1, 1 }; // 1 is for FV and PC; 4 could be for SE opts.addOpt< int >( "typeSource,x", "source type", &types[0] ); opts.addOpt< int >( "typeTarget,y", "target type", &types[1] ); opts.addOpt< int >( "orderSource,u", "source order", &disc_orders[0] ); opts.addOpt< int >( "orderTarget,v", "target oorder", &disc_orders[1] ); bool analytic_field = false; opts.addOpt< void >( "analytic,q", "analytic field", &analytic_field ); bool no_regression_test = false; opts.addOpt< void >( "no_regression,r", "do not do regression test against baseline 1", &no_regression_test ); opts.parseCommandLine( argc, argv ); char fileWriteOptions[] = "PARALLEL=WRITE_PART"; if( !rankInGlobalComm ) { std::cout << " atm file: " << atmFilename << "\n on tasks : " << startG1 << ":" << endG1 << "\n ocn file: " << ocnFilename << "\n on tasks : " << startG2 << ":" << endG2 << "\n map file:" << mapFilename << "\n on tasks : " << startG4 << ":" << endG4 << "\n"; if( !no_regression_test ) { std::cout << " check projection against baseline: " << baseline << "\n"; } } // load files on 3 different communicators, groups // first groups has task 0, second group tasks 0 and 1 // coupler will be on joint tasks, will be on a third group (0 and 1, again) // first groups has task 0, second group tasks 0 and 1 // coupler will be on joint tasks, will be on a third group (0 and 1, again) MPI_Group atmPEGroup; MPI_Comm atmComm; ierr = create_group_and_comm( startG1, endG1, jgroup, &atmPEGroup, &atmComm ); CHECKIERR( ierr, "Cannot create atm MPI group and communicator " ) MPI_Group ocnPEGroup; MPI_Comm ocnComm; ierr = create_group_and_comm( startG2, endG2, jgroup, &ocnPEGroup, &ocnComm ); CHECKIERR( ierr, "Cannot create ocn MPI group and communicator " ) // we will always have a coupler MPI_Group couPEGroup; MPI_Comm couComm; ierr = create_group_and_comm( startG4, endG4, jgroup, &couPEGroup, &couComm ); CHECKIERR( ierr, "Cannot create cpl MPI group and communicator " ) // atm_coupler MPI_Group joinAtmCouGroup; MPI_Comm atmCouComm; ierr = create_joint_comm_group( atmPEGroup, couPEGroup, &joinAtmCouGroup, &atmCouComm ); CHECKIERR( ierr, "Cannot create joint atm cou communicator" ) // ocn_coupler MPI_Group joinOcnCouGroup; MPI_Comm ocnCouComm; ierr = create_joint_comm_group( ocnPEGroup, couPEGroup, &joinOcnCouGroup, &ocnCouComm ); CHECKIERR( ierr, "Cannot create joint ocn cou communicator" ) ierr = iMOAB_Initialize( argc, argv ); // not really needed anything from argc, argv, yet; maybe we should CHECKIERR( ierr, "Cannot initialize iMOAB" ) int cmpAtmAppID = -1; iMOAB_AppID cmpAtmPID = &cmpAtmAppID; // atm int cplAtmAppID = -1; // -1 means it is not initialized iMOAB_AppID cplAtmPID = &cplAtmAppID; // atm on coupler PEs int cmpOcnAppID = -1; iMOAB_AppID cmpOcnPID = &cmpOcnAppID; // ocn int cplOcnAppID = -1, cplAtmOcnAppID = -1; // -1 means it is not initialized iMOAB_AppID cplOcnPID = &cplOcnAppID; // ocn on coupler PEs iMOAB_AppID cplAtmOcnPID = &cplAtmOcnAppID; // intx atm -ocn on coupler PEs if( couComm != MPI_COMM_NULL ) { MPI_Comm_rank( couComm, &rankInCouComm ); // Register all the applications on the coupler PEs ierr = iMOAB_RegisterApplication( "ATMX", &couComm, &cplatm, cplAtmPID ); // atm on coupler pes CHECKIERR( ierr, "Cannot register ATM over coupler PEs" ) ierr = iMOAB_RegisterApplication( "OCNX", &couComm, &cplocn, cplOcnPID ); // ocn on coupler pes CHECKIERR( ierr, "Cannot register OCN over coupler PEs" ) } if( atmComm != MPI_COMM_NULL ) { MPI_Comm_rank( atmComm, &rankInAtmComm ); ierr = iMOAB_RegisterApplication( "ATM1", &atmComm, &cmpatm, cmpAtmPID ); CHECKIERR( ierr, "Cannot register ATM App" ) ierr = iMOAB_LoadMesh( cmpAtmPID, atmFilename.c_str(), readopts.c_str(), &nghlay ); CHECKIERR( ierr, "Cannot load atm mesh" ) } if( ocnComm != MPI_COMM_NULL ) { MPI_Comm_rank( ocnComm, &rankInOcnComm ); ierr = iMOAB_RegisterApplication( "OCN1", &ocnComm, &cmpocn, cmpOcnPID ); CHECKIERR( ierr, "Cannot register OCN App" ) } MPI_Barrier( MPI_COMM_WORLD ); ierr = setup_component_coupler_meshes( cmpOcnPID, cmpocn, cplOcnPID, cplocn, &ocnComm, &ocnPEGroup, &couComm, &couPEGroup, &ocnCouComm, ocnFilename, readopts, nghlay, repartitioner_scheme ); CHECKIERR( ierr, "Cannot set-up target meshes" ) #ifdef VERBOSE if( couComm != MPI_COMM_NULL ) { char outputFileTgt3[] = "recvTgt.h5m"; ierr = iMOAB_WriteMesh( cplOcnPID, outputFileTgt3, fileWriteOptions ); CHECKIERR( ierr, "cannot write target mesh after receiving on coupler" ) } #endif CHECKIERR( ierr, "Cannot load and distribute target mesh" ) MPI_Barrier( MPI_COMM_WORLD ); if( couComm != MPI_COMM_NULL ) { // now load map between OCNx and ATMx on coupler PEs ierr = iMOAB_RegisterApplication( "ATMOCN", &couComm, &atmocnid, cplAtmOcnPID ); CHECKIERR( ierr, "Cannot register ocn_atm map instance over coupler pes " ) } const std::string intx_from_file_identifier = "map-from-file"; if( couComm != MPI_COMM_NULL ) { int col_or_row = 0; // row based partition int type = 3; // target is FV cell with global ID as DOFs ierr = iMOAB_LoadMappingWeightsFromFile( cplAtmOcnPID, cplOcnPID, &col_or_row, &type, intx_from_file_identifier.c_str(), mapFilename.c_str() ); CHECKIERR( ierr, "failed to load map file from disk" ); } if( atmCouComm != MPI_COMM_NULL ) { int type = types[0]; // FV int direction = 1; // from source to coupler; will create a mesh on cplAtmPID // because it is like "coverage", context will be cplocn ierr = iMOAB_MigrateMapMesh( cmpAtmPID, cplAtmOcnPID, cplAtmPID, &atmCouComm, &atmPEGroup, &couPEGroup, &type, &cmpatm, &cplocn, &direction ); CHECKIERR( ierr, "failed to migrate mesh for atm on coupler" ); #ifdef VERBOSE if( *cplAtmPID >= 0 ) { char prefix[] = "atmcov"; ierr = iMOAB_WriteLocalMesh( cplAtmPID, prefix ); CHECKIERR( ierr, "failed to write local mesh" ); } #endif } MPI_Barrier( MPI_COMM_WORLD ); int tagIndex[2]; int tagTypes[2] = { DENSE_DOUBLE, DENSE_DOUBLE }; int atmCompNDoFs = disc_orders[0] * disc_orders[0], ocnCompNDoFs = disc_orders[1] * disc_orders[1] /*FV*/; const char* bottomTempField = "AnalyticalSolnSrcExact"; const char* bottomTempProjectedField = "Target_proj"; if( couComm != MPI_COMM_NULL ) { ierr = iMOAB_DefineTagStorage( cplAtmPID, bottomTempField, &tagTypes[0], &atmCompNDoFs, &tagIndex[0] ); CHECKIERR( ierr, "failed to define the field tag AnalyticalSolnSrcExact" ); ierr = iMOAB_DefineTagStorage( cplOcnPID, bottomTempProjectedField, &tagTypes[1], &ocnCompNDoFs, &tagIndex[1] ); CHECKIERR( ierr, "failed to define the field tag Target_proj" ); } if( analytic_field && ( atmComm != MPI_COMM_NULL ) ) // we are on source /atm pes { // cmpOcnPID, "T_proj;u_proj;v_proj;" ierr = iMOAB_DefineTagStorage( cmpAtmPID, bottomTempField, &tagTypes[0], &atmCompNDoFs, &tagIndex[0] ); CHECKIERR( ierr, "failed to define the field tag AnalyticalSolnSrcExact" ); int nverts[3], nelem[3], nblocks[3], nsbc[3], ndbc[3]; /* * Each process in the communicator will have access to a local mesh instance, which will contain the * original cells in the local partition and ghost entities. Number of vertices, primary cells, visible * blocks, number of sidesets and nodesets boundary conditions will be returned in numProcesses 3 arrays, * for local, ghost and total numbers. */ ierr = iMOAB_GetMeshInfo( cmpAtmPID, nverts, nelem, nblocks, nsbc, ndbc ); CHECKIERR( ierr, "failed to get num primary elems" ); int numAllElem = nelem[2]; int eetype = 1; if( types[0] == 2 ) // point cloud { numAllElem = nverts[2]; eetype = 0; } std::vector< double > vals; int storLeng = atmCompNDoFs * numAllElem; vals.resize( storLeng ); for( int k = 0; k < storLeng; k++ ) vals[k] = k; ierr = iMOAB_SetDoubleTagStorage( cmpAtmPID, bottomTempField, &storLeng, &eetype, &vals[0] ); CHECKIERR( ierr, "cannot make analytical tag" ) } // need to make sure that the coverage mesh (created during intx method) received the tag that // need to be projected to target so far, the coverage mesh has only the ids and global dofs; // need to change the migrate method to accommodate any GLL tag // now send a tag from original atmosphere (cmpAtmPID) towards migrated coverage mesh // (cplAtmPID), using the new coverage graph communicator // make the tag 0, to check we are actually sending needed data { if( cplAtmAppID >= 0 ) { int nverts[3], nelem[3], nblocks[3], nsbc[3], ndbc[3]; /* * Each process in the communicator will have access to a local mesh instance, which * will contain the original cells in the local partition and ghost entities. Number of * vertices, primary cells, visible blocks, number of sidesets and nodesets boundary * conditions will be returned in numProcesses 3 arrays, for local, ghost and total * numbers. */ ierr = iMOAB_GetMeshInfo( cplAtmPID, nverts, nelem, nblocks, nsbc, ndbc ); CHECKIERR( ierr, "failed to get num primary elems" ); int numAllElem = nelem[2]; int eetype = 1; if( types[0] == 2 ) // Point cloud { eetype = 0; // vertices numAllElem = nverts[2]; } std::vector< double > vals; int storLeng = atmCompNDoFs * numAllElem; vals.resize( storLeng ); for( int k = 0; k < storLeng; k++ ) vals[k] = 0.; ierr = iMOAB_SetDoubleTagStorage( cplAtmPID, bottomTempField, &storLeng, &eetype, &vals[0] ); CHECKIERR( ierr, "cannot make tag nul" ) // set the tag to 0 } } const char* concat_fieldname = "AnalyticalSolnSrcExact"; const char* concat_fieldnameT = "Target_proj"; { PUSH_TIMER( "Send/receive data from atm component to coupler in ocn context" ) if( atmComm != MPI_COMM_NULL ) { // as always, use nonblocking sends // this is for projection to ocean: ierr = iMOAB_SendElementTag( cmpAtmPID, "AnalyticalSolnSrcExact", &atmCouComm, &cplocn ); CHECKIERR( ierr, "cannot send tag values" ) } if( couComm != MPI_COMM_NULL ) { // receive on atm on coupler pes, that was redistributed according to coverage ierr = iMOAB_ReceiveElementTag( cplAtmPID, "AnalyticalSolnSrcExact", &atmCouComm, &cmpatm ); CHECKIERR( ierr, "cannot receive tag values" ) } // we can now free the sender buffers if( atmComm != MPI_COMM_NULL ) { ierr = iMOAB_FreeSenderBuffers( cmpAtmPID, &cplocn ); // context is for ocean CHECKIERR( ierr, "cannot free buffers used to resend atm tag towards the coverage mesh" ) } POP_TIMER( MPI_COMM_WORLD, rankInGlobalComm ) #ifdef VERBOSE if( *cplAtmPID >= 0 ) { char prefix[] = "atmcov_withdata"; ierr = iMOAB_WriteLocalMesh( cplAtmPID, prefix ); CHECKIERR( ierr, "failed to write local atm cov mesh with data" ); } #endif if( couComm != MPI_COMM_NULL ) { /* We have the remapping weights now. Let us apply the weights onto the tag we defined on the source mesh and get the projection on the target mesh */ PUSH_TIMER( "Apply Scalar projection weights" ) ierr = iMOAB_ApplyScalarProjectionWeights( cplAtmOcnPID, intx_from_file_identifier.c_str(), concat_fieldname, concat_fieldnameT ); CHECKIERR( ierr, "failed to compute projection weight application" ); POP_TIMER( couComm, rankInCouComm ) { char outputFileTgt[] = "fOcnOnCpl5.h5m"; ierr = iMOAB_WriteMesh( cplOcnPID, outputFileTgt, fileWriteOptions ); CHECKIERR( ierr, "could not write fOcnOnCpl.h5m to disk" ) } } // send the projected tag back to ocean pes, with send/receive tag if( ocnComm != MPI_COMM_NULL ) { int tagIndexIn2; ierr = iMOAB_DefineTagStorage( cmpOcnPID, bottomTempProjectedField, &tagTypes[1], &ocnCompNDoFs, &tagIndexIn2 ); CHECKIERR( ierr, "failed to define the field tag for receiving back the tag " "Target_proj on ocn pes" ); } // send the tag to ocean pes, from ocean mesh on coupler pes // from couComm, using common joint comm ocn_coupler // as always, use nonblocking sends // original graph (context is -1_ if( couComm != MPI_COMM_NULL ) { // need to use ocean comp id for context context_id = cmpocn; // id for ocean on comp ierr = iMOAB_SendElementTag( cplOcnPID, "Target_proj", &ocnCouComm, &context_id ); CHECKIERR( ierr, "cannot send tag values back to ocean pes" ) } // receive on component 2, ocean if( ocnComm != MPI_COMM_NULL ) { context_id = cplocn; // id for ocean on coupler ierr = iMOAB_ReceiveElementTag( cmpOcnPID, "Target_proj", &ocnCouComm, &context_id ); CHECKIERR( ierr, "cannot receive tag values from ocean mesh on coupler pes" ) } if( couComm != MPI_COMM_NULL ) { context_id = cmpocn; ierr = iMOAB_FreeSenderBuffers( cplOcnPID, &context_id ); CHECKIERR( ierr, "cannot free buffers for Target_proj tag migration " ) } MPI_Barrier( MPI_COMM_WORLD ); if( ocnComm != MPI_COMM_NULL ) { #ifdef VERBOSE char outputFileOcn[] = "OcnWithProj.h5m"; ierr = iMOAB_WriteMesh( cmpOcnPID, outputFileOcn, fileWriteOptions ); CHECKIERR( ierr, "could not write OcnWithProj.h5m to disk" ) #endif // test results only for n == 1, for bottomTempProjectedField if( !no_regression_test ) { // the same as remap test // get temp field on ocean, from conservative, the global ids, and dump to the baseline file // first get GlobalIds from ocn, and fields: int nverts[3], nelem[3]; ierr = iMOAB_GetMeshInfo( cmpOcnPID, nverts, nelem, 0, 0, 0 ); CHECKIERR( ierr, "failed to get ocn mesh info" ); std::vector< int > gidElems; gidElems.resize( nelem[2] ); std::vector< double > tempElems; tempElems.resize( nelem[2] ); // get global id storage const std::string GidStr = "GLOBAL_ID"; // hard coded too int tag_type = DENSE_INTEGER, ncomp = 1, tagInd = 0; ierr = iMOAB_DefineTagStorage( cmpOcnPID, GidStr.c_str(), &tag_type, &ncomp, &tagInd ); CHECKIERR( ierr, "failed to define global id tag" ); int ent_type = 1; ierr = iMOAB_GetIntTagStorage( cmpOcnPID, GidStr.c_str(), &nelem[2], &ent_type, &gidElems[0] ); CHECKIERR( ierr, "failed to get global ids" ); ierr = iMOAB_GetDoubleTagStorage( cmpOcnPID, bottomTempProjectedField, &nelem[2], &ent_type, &tempElems[0] ); CHECKIERR( ierr, "failed to get temperature field" ); int err_code = 1; check_baseline_file( baseline, gidElems, tempElems, 1.e-9, err_code ); if( 0 == err_code ) std::cout << " passed baseline test atm2ocn on ocean task " << rankInOcnComm << "\n"; } } } // end loop iterations n if( couComm != MPI_COMM_NULL ) { ierr = iMOAB_DeregisterApplication( cplAtmOcnPID ); CHECKIERR( ierr, "cannot deregister app intx AO" ) } if( ocnComm != MPI_COMM_NULL ) { ierr = iMOAB_DeregisterApplication( cmpOcnPID ); CHECKIERR( ierr, "cannot deregister app OCN1" ) } if( atmComm != MPI_COMM_NULL ) { ierr = iMOAB_DeregisterApplication( cmpAtmPID ); CHECKIERR( ierr, "cannot deregister app ATM1" ) } if( couComm != MPI_COMM_NULL ) { ierr = iMOAB_DeregisterApplication( cplOcnPID ); CHECKIERR( ierr, "cannot deregister app OCNX" ) } if( couComm != MPI_COMM_NULL ) { ierr = iMOAB_DeregisterApplication( cplAtmPID ); CHECKIERR( ierr, "cannot deregister app ATMX" ) } //#endif ierr = iMOAB_Finalize(); CHECKIERR( ierr, "did not finalize iMOAB" ) // free atm coupler group and comm if( MPI_COMM_NULL != atmCouComm ) MPI_Comm_free( &atmCouComm ); MPI_Group_free( &joinAtmCouGroup ); if( MPI_COMM_NULL != atmComm ) MPI_Comm_free( &atmComm ); if( MPI_COMM_NULL != ocnComm ) MPI_Comm_free( &ocnComm ); // free ocn - coupler group and comm if( MPI_COMM_NULL != ocnCouComm ) MPI_Comm_free( &ocnCouComm ); MPI_Group_free( &joinOcnCouGroup ); if( MPI_COMM_NULL != couComm ) MPI_Comm_free( &couComm ); MPI_Group_free( &atmPEGroup ); MPI_Group_free( &ocnPEGroup ); MPI_Group_free( &couPEGroup ); MPI_Group_free( &jgroup ); MPI_Finalize(); return 0; }