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release/2020.10
opm-common/tests/test_AggregateConnectionData.cpp
Bård Skaflestad 4956e880a4 Summary/Restart: Get CTF From Simulator 
This commit switches to getting the output files' connection
transmissibility factor from Opm::data::Connection instead of
Opm::Connection.  This is in preparation for implementing the WELPI
feature, in which the CTFs are occasionally adjusted based on the
dynamic simulation state.
2020-10-05 23:34:01 +02:00

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/*
Copyright 2018 Statoil ASA
This file is part of the Open Porous Media project (OPM).
OPM 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 3 of the License, or
(at your option) any later version.
OPM 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 OPM. If not, see <http://www.gnu.org/licenses/>.
*/
#define BOOST_TEST_MODULE Aggregate_Connection_Data
#include <opm/output/eclipse/AggregateMSWData.hpp>
#include <opm/output/eclipse/AggregateConnectionData.hpp>
#include <opm/output/eclipse/VectorItems/connection.hpp>
#include <opm/io/eclipse/rst/header.hpp>
#include <opm/io/eclipse/rst/connection.hpp>
#include <opm/parser/eclipse/Python/Python.hpp>
#include <boost/test/unit_test.hpp>
#include <opm/output/eclipse/AggregateWellData.hpp>
#include <opm/output/eclipse/VectorItems/intehead.hpp>
#include <opm/output/eclipse/VectorItems/well.hpp>
#include <opm/output/data/Wells.hpp>
#include <opm/parser/eclipse/Deck/Deck.hpp>
#include <opm/parser/eclipse/Parser/Parser.hpp>
#include <opm/parser/eclipse/EclipseState/EclipseState.hpp>
#include <opm/parser/eclipse/EclipseState/Schedule/Schedule.hpp>
#include <opm/parser/eclipse/EclipseState/Schedule/SummaryState.hpp>
#include <exception>
#include <stdexcept>
#include <utility>
#include <vector>
#include <iostream>
#include <cstddef>
struct MockIH
{
MockIH(const int numWells,
const int nsegWell = 1, // E100
const int ncwMax = 20,
const int iConnPerConn = 25, // NICONZ
const int sConnPerConn = 41, // NSCONZ
const int xConnPerConn = 58); // NXCONZ
std::vector<int> value;
using Sz = std::vector<int>::size_type;
Sz nwells;
Sz nsegwl;
Sz nsegmx;
Sz nswlmx;
Sz ncwmax;
Sz niconz;
Sz nsconz;
Sz nxconz;
};
MockIH::MockIH(const int numWells,
const int nsegWell,
const int /* ncwMax */,
const int iConnPerConn,
const int sConnPerConn,
const int xConnPerConn)
: value(411, 0)
{
using Ix = ::Opm::RestartIO::Helpers::VectorItems::intehead;
this->nwells = this->value[Ix::NWELLS] = numWells;
this->nsegwl = this->value[Ix::NSEGWL] = nsegWell;
this->ncwmax = this->value[Ix::NCWMAX] = 20;
this->nswlmx = this->value[Ix::NSWLMX] = 1;
this->nsegmx = this->value[Ix::NSEGMX] = 32;
this->niconz = this->value[Ix::NICONZ] = iConnPerConn;
this->nsconz = this->value[Ix::NSCONZ] = sConnPerConn;
this->nxconz = this->value[Ix::NXCONZ] = xConnPerConn;
}
namespace {
Opm::Deck first_sim()
{
// Mostly copy of tests/FIRST_SIM.DATA
const auto input = std::string {
R"~(
RUNSPEC
TITLE
TWO MULTI-LATERAL WELLS; WINJUCER AND INJECTOR - MULTI-SEGMENT BRANCHES
DIMENS
10 5 10 /
OIL
WATER
GAS
DISGAS
FIELD
TABDIMS
1 1 15 15 2 15 /
EQLDIMS
2 /
WELLDIMS
3 20 1 3 /
WSEGDIMS
1 32 5 /
UNIFIN
UNIFOUT
--FMTIN
--FMTOUT
START
1 'JAN' 2015 /
-- RPTRUNSP
GRID =========================================================
--NOGGF
BOX
1 10 1 5 1 1 /
TOPS
50*7000 /
BOX
1 10 1 5 1 10 /
DXV
10*100 /
DYV
5*100 /
DZV
2*20 100 7*20 /
EQUALS
-- 'DX' 100 /
-- 'DY' 100 /
'PERMX' 50 /
'PERMZ' 5 /
-- 'DZ' 20 /
'PORO' 0.2 /
-- 'TOPS' 7000 1 10 1 5 1 1 /
-- 'DZ' 100 1 10 1 5 3 3 /
-- 'PORO' 0.0 1 10 1 5 3 3 /
/
COPY
PERMX PERMY /
/
PORO
500*0.15 /
RPTGRID
-- Report Levels for Grid Section Data
--
/
EDIT
EQUALS
'PORV' 0.0 7 7 1 1 9 9 /
/
PROPS ==========================================================
-- WATER RELATIVE PERMEABILITY AND CAPILLARY PRESSURE ARE TABULATED AS
-- A FUNCTION OF WATER SATURATION.
--
-- SWAT KRW PCOW
SWFN
0.12 0 0
1.0 0.00001 0 /
-- SIMILARLY FOR GAS
--
-- SGAS KRG PCOG
SGFN
0 0 0
0.02 0 0
0.05 0.005 0
0.12 0.025 0
0.2 0.075 0
0.25 0.125 0
0.3 0.19 0
0.4 0.41 0
0.45 0.6 0
0.5 0.72 0
0.6 0.87 0
0.7 0.94 0
0.85 0.98 0
1.0 1.0 0
/
-- OIL RELATIVE PERMEABILITY IS TABULATED AGAINST OIL SATURATION
-- FOR OIL-WATER AND OIL-GAS-CONNATE WATER CASES
--
-- SOIL KROW KROG
SOF3
0 0 0
0.18 0 0
0.28 0.0001 0.0001
0.38 0.001 0.001
0.43 0.01 0.01
0.48 0.021 0.021
0.58 0.09 0.09
0.63 0.2 0.2
0.68 0.35 0.35
0.76 0.7 0.7
0.83 0.98 0.98
0.86 0.997 0.997
0.879 1 1
0.88 1 1 /
-- PVT PROPERTIES OF WATER
--
-- REF. PRES. REF. FVF COMPRESSIBILITY REF VISCOSITY VISCOSIBILITY
PVTW
4014.7 1.029 3.13D-6 0.31 0 /
-- ROCK COMPRESSIBILITY
--
-- REF. PRES COMPRESSIBILITY
ROCK
14.7 3.0D-6 /
-- SURFACE DENSITIES OF RESERVOIR FLUIDS
--
-- OIL WATER GAS
DENSITY
49.1 64.79 0.06054 /
-- PVT PROPERTIES OF DRY GAS (NO VAPOURISED OIL)
-- WE WOULD USE PVTG TO SPECIFY THE PROPERTIES OF WET GAS
--
-- PGAS BGAS VISGAS
PVDG
14.7 166.666 0.008
264.7 12.093 0.0096
514.7 6.274 0.0112
1014.7 3.197 0.014
2014.7 1.614 0.0189
2514.7 1.294 0.0208
3014.7 1.080 0.0228
4014.7 0.811 0.0268
5014.7 0.649 0.0309
9014.7 0.386 0.047 /
-- PVT PROPERTIES OF LIVE OIL (WITH DISSOLVED GAS)
-- WE WOULD USE PVDO TO SPECIFY THE PROPERTIES OF DEAD OIL
--
-- RS POIL FVFO VISO
PVTO
0.001 14.7 1.062 1.04 /
0.0905 264.7 1.15 0.975 /
0.18 514.7 1.207 0.91 /
0.371 1014.7 1.295 0.83 /
0.636 2014.7 1.435 0.695 /
0.775 2514.7 1.5 0.641 /
0.93 3014.7 1.565 0.594 /
1.270 4014.7 1.695 0.51
5014.7 1.671 0.549
9014.7 1.579 0.74 /
1.618 5014.7 1.827 0.449
9014.7 1.726 0.605 /
/
RPTPROPS
-- PROPS Reporting Options
--
/
REGIONS ===========================================================
FIPNUM
100*1
400*2
/
EQLNUM
100*1
400*2
/
RPTREGS
/
SOLUTION ============================================================
EQUIL
7020.00 2700.00 7990.00 .00000 7020.00 .00000 0 0 5 /
7200.00 3700.00 7300.00 .00000 7000.00 .00000 1 0 5 /
RSVD 2 TABLES 3 NODES IN EACH FIELD 12:00 17 AUG 83
7000.0 1.0000
7990.0 1.0000
/
7000.0 1.0000
7400.0 1.0000
/
RPTRST
-- Restart File Output Control
--
'BASIC=2' 'FLOWS' 'POT' 'PRES' /
--RPTSOL
--
-- Initialisation Print Output
--
--'PRES' 'SOIL' 'SWAT' 'SGAS' 'RS' 'RESTART=1' 'FIP=2' 'EQUIL' 'RSVD' /
SUMMARY ===========================================================
FOPR
WOPR
'WINJ'
/
FGPR
FWPR
FWIR
FWCT
FGOR
--RUNSUM
ALL
MSUMLINS
MSUMNEWT
SEPARATE
SCHEDULE ===========================================================
DEBUG
1 3 /
DRSDT
1.0E20 /
RPTSCHED
'PRES' 'SWAT' 'SGAS' 'RESTART=1' 'RS' 'WELLS=2' 'SUMMARY=2'
'CPU=2' 'WELSPECS' 'NEWTON=2' /
NOECHO
ECHO
WELSPECS
'PROD' 'G' 1 5 7030 'OIL' 0.0 'STD' 'STOP' /
'WINJ' 'G' 10 1 7030 'WAT' 0.0 'STD' 'STOP' /
/
COMPDAT
'PROD' 1 5 2 2 3* 0.2 3* 'X' /
'PROD' 2 5 2 2 3* 0.2 3* 'X' /
'PROD' 3 5 2 2 3* 0.2 3* 'X' / -- This connection is explicitly made inactive in the InactiveCell test
'PROD' 4 5 2 2 3* 0.2 3* 'X' /
'PROD' 5 5 2 2 3* 0.2 3* 'X' /
'WINJ' 10 1 9 9 3* 0.2 3* 'X' /
'WINJ' 9 1 9 9 3* 0.2 3* 'X' /
'WINJ' 8 1 9 9 3* 0.2 3* 'X' /
'WINJ' 7 1 9 9 3* 0.2 3* 'X' /
'WINJ' 6 1 9 9 3* 0.2 3* 'X' /
/
WELSEGS
-- Name Dep 1 Tlen 1 Vol 1
'PROD' 7010 10 0.31 'INC' /
-- First Last Branch Outlet Length Depth Diam Ruff Area Vol
-- Seg Seg Num Seg Chang
-- Main Stem
2 12 1 1 20 20 0.2 1.E-3 1* 1* /
-- Top Branch
13 13 2 3 50 0 0.2 1.E-3 1* 1* /
14 17 2 13 100 0 0.2 1.E-3 1* 1* /
/
COMPSEGS
-- Name
'PROD' /
-- I J K Brn Start End Dirn End
-- No Length Length Penet Range
-- Top Branch
1 5 2 2 30 130 'X' 3* /
2 5 2 2 130 230 'X' 3* /
3 5 2 2 230 330 'X' 3* /
4 5 2 2 330 430 'X' 3* /
5 5 2 2 430 530 'X' 3* /
-- Middle Branch
/
WCONPROD
'PROD' 'OPEN' 'LRAT' 3* 2000 1* 2500 1* /
/
WCONINJE
'WINJ' 'WAT' 'OPEN' 'BHP' 1* 20000 3500 1* /
/
TUNING
/
/
/
TSTEP
2 2
/
END
)~" };
return Opm::Parser{}.parseString(input);
}
Opm::data::WellRates wr(const Opm::Schedule& sched)
{
using o = ::Opm::data::Rates::opt;
auto xw = ::Opm::data::WellRates {};
{
xw["PROD"].rates.set(o::wat, 1.0).set(o::oil, 2.0).set(o::gas, 3.0);
xw["PROD"].bhp = 213.0;
double qo = 5.;
double qw = 4.;
double qg = 50.;
{
const auto& well = sched.getWell("PROD", 0);
const auto& connections = well.getConnections();
for (int i = 0; i < 5; i++) {
xw["PROD"].connections.emplace_back();
auto& c = xw["PROD"].connections.back();
c.rates.set(o::wat, qw * (float(i) + 1.))
.set(o::oil, qo * (float(i) + 1.))
.set(o::gas, qg * (float(i) + 1.));
c.pressure = 215.;
c.index = connections[i].global_index();
c.trans_factor = connections[i].CF();
}
auto seg = Opm::data::Segment {};
for (std::size_t i = 1; i < 5; i++) {
xw["PROD"].segments.insert(std::pair<std::size_t, Opm::data::Segment>(i, seg));
}
}
{
const auto& well = sched.getWell("WINJ", 0);
const auto& connections = well.getConnections();
xw["WINJ"].bhp = 234.0;
xw["WINJ"].rates.set(o::wat, 5.0);
xw["WINJ"].rates.set(o::oil, 0.0);
xw["WINJ"].rates.set(o::gas, 0.0);
qw = 7.;
for (int i = 0; i < 4; i++) {
xw["WINJ"].connections.emplace_back();
auto& c = xw["WINJ"].connections.back();
c.rates.set(o::wat, qw * (float(i) + 1.)).set(o::oil, 0.).set(o::gas, 0.);
c.pressure = 218.;
c.index = connections[i].global_index();
c.trans_factor = connections[i].CF();
}
}
}
return xw;
}
} // namespace
struct SimulationCase {
explicit SimulationCase(const Opm::Deck& deck)
: es (deck)
, grid (deck)
, sched(deck, es, std::make_shared<Opm::Python>())
{}
// Order requirement: 'es' must be declared/initialised before 'sched'.
Opm::EclipseState es;
Opm::EclipseGrid grid;
Opm::Schedule sched;
};
// =====================================================================
BOOST_AUTO_TEST_SUITE(Aggregate_ConnData)
// test dimensions of Connection data
BOOST_AUTO_TEST_CASE (Constructor)
{
const auto ih = MockIH{ 5 };
const auto amconn = Opm::RestartIO::Helpers::AggregateConnectionData{ ih.value };
BOOST_CHECK_EQUAL(amconn.getIConn().size(), ih.nwells * ih.ncwmax * ih.niconz);
BOOST_CHECK_EQUAL(amconn.getSConn().size(), ih.nwells * ih.ncwmax * ih.nsconz);
BOOST_CHECK_EQUAL(amconn.getXConn().size(), ih.nwells * ih.ncwmax * ih.nxconz);
}
BOOST_AUTO_TEST_CASE(Declared_Connection_Data)
{
const auto simCase = SimulationCase {first_sim()};
// Report Step 1: 2115-01-01 --> 2015-01-03
const auto rptStep = std::size_t {1};
const auto ih = MockIH {static_cast<int>(simCase.sched.getWells(rptStep).size())};
BOOST_CHECK_EQUAL(ih.nwells, MockIH::Sz {2});
const Opm::data::WellRates wrc = wr(simCase.sched);
auto amconn = Opm::RestartIO::Helpers::AggregateConnectionData {ih.value};
amconn.captureDeclaredConnData(simCase.sched, simCase.grid, simCase.es.getUnits(), wrc, rptStep);
// ICONN (PROD)
{
using Ix = ::Opm::RestartIO::Helpers::VectorItems::IConn::index;
auto start = 0 * ih.niconz;
const auto& iConn = amconn.getIConn();
BOOST_CHECK_EQUAL(iConn[start + Ix::SeqIndex], 1); // PROD-connection 1, sequence number
BOOST_CHECK_EQUAL(iConn[start + Ix::CellI], 1); // PROD-connection 1, Cell I
BOOST_CHECK_EQUAL(iConn[start + Ix::CellJ], 5); // PROD-connection 1, Cell J
BOOST_CHECK_EQUAL(iConn[start + Ix::CellK], 2); // PROD-connection 1, Cell K
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnStat], 1); // PROD-connection 1, ConnStat
BOOST_CHECK_EQUAL(iConn[start + Ix::Drainage], 0); // PROD-connection 1, Drainage saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::Imbibition], 0); // PROD-connection 1, Imbibition saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::ComplNum], 1); // PROD-connection 1, Complum number
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnDir], 1); // PROD-connection 1, Connection direction
BOOST_CHECK_EQUAL(iConn[start + Ix::Segment], 13); // PROD-connection 1, Segment ID for direction
start = 3 * ih.niconz;
BOOST_CHECK_EQUAL(iConn[start + Ix::SeqIndex], 4); // PROD-connection 4, sequence number
BOOST_CHECK_EQUAL(iConn[start + Ix::CellI], 4); // PROD-connection 4, Cell I
BOOST_CHECK_EQUAL(iConn[start + Ix::CellJ], 5); // PROD-connection 4, Cell J
BOOST_CHECK_EQUAL(iConn[start + Ix::CellK], 2); // PROD-connection 4, Cell K
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnStat], 1); // PROD-connection 4, ConnStat
BOOST_CHECK_EQUAL(iConn[start + Ix::Drainage], 0); // PROD-connection 4, Drainage saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::Imbibition], 0); // PROD-connection 4, Imbibition saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::ComplNum], 4); // PROD-connection 4, Complum number
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnDir], 1); // PROD-connection 4, Connection direction
BOOST_CHECK_EQUAL(iConn[start + Ix::Segment], 16); // PROD-connection 4, Segment ID for direction
// ICONN (WINJ)
start = ih.ncwmax * ih.niconz;
BOOST_CHECK_EQUAL(iConn[start + Ix::SeqIndex], 1); // WINJ-connection 1, sequence number
BOOST_CHECK_EQUAL(iConn[start + Ix::CellI], 10); // WINJ-connection 1, Cell I
BOOST_CHECK_EQUAL(iConn[start + Ix::CellJ], 1); // WINJ-connection 1, Cell J
BOOST_CHECK_EQUAL(iConn[start + Ix::CellK], 9); // WINJ-connection 1, Cell K
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnStat], 1); // WINJ-connection 1, ConnStat
BOOST_CHECK_EQUAL(iConn[start + Ix::Drainage], 0); // WINJ-connection 1, Drainage saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::Imbibition], 0); // WINJ-connection 1, Imbibition saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::ComplNum], 1); // WINJ-connection 1, Complum number
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnDir], 1); // WINJ-connection 1, Connection direction
BOOST_CHECK_EQUAL(iConn[start + Ix::Segment], 0); // WINJ-connection 1, Segment ID for direction
start = ih.ncwmax * ih.niconz + 2 * ih.niconz;
BOOST_CHECK_EQUAL(iConn[start + Ix::SeqIndex], 3); // WINJ-connection 3, sequence number
BOOST_CHECK_EQUAL(iConn[start + Ix::CellI], 8); // WINJ-connection 3, Cell I
BOOST_CHECK_EQUAL(iConn[start + Ix::CellJ], 1); // WINJ-connection 3, Cell J
BOOST_CHECK_EQUAL(iConn[start + Ix::CellK], 9); // WINJ-connection 3, Cell K
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnStat], 1); // WINJ-connection 3, ConnStat
BOOST_CHECK_EQUAL(iConn[start + Ix::Drainage], 0); // WINJ-connection 3, Drainage saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::Imbibition], 0); // WINJ-connection 3, Imbibition saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::ComplNum], 3); // WINJ-connection 3, Complum number
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnDir], 1); // WINJ-connection 3, Connection direction
BOOST_CHECK_EQUAL(iConn[start + Ix::Segment], 0); // WINJ-connection 3, Segment ID for direction
start = ih.ncwmax * ih.niconz + 3 * ih.niconz;
BOOST_CHECK_EQUAL(iConn[start + Ix::SeqIndex], 4); // WINJ-connection 4, sequence number
BOOST_CHECK_EQUAL(iConn[start + Ix::CellI], 6); // WINJ-connection 4, Cell I
BOOST_CHECK_EQUAL(iConn[start + Ix::CellJ], 1); // WINJ-connection 4, Cell J
BOOST_CHECK_EQUAL(iConn[start + Ix::CellK], 9); // WINJ-connection 4, Cell K
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnStat], 1); // WINJ-connection 4, ConnStat
BOOST_CHECK_EQUAL(iConn[start + Ix::Drainage], 0); // WINJ-connection 4, Drainage saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::Imbibition], 0); // WINJ-connection 4, Imbibition saturation table
BOOST_CHECK_EQUAL(iConn[start + Ix::ComplNum], 4); // WINJ-connection 4, Complum number
BOOST_CHECK_EQUAL(iConn[start + Ix::ConnDir], 1); // WINJ-connection 4, Connection direction
BOOST_CHECK_EQUAL(iConn[start + Ix::Segment], 0); // WINJ-connection 4, Segment ID for direction
}
// SCONN (PROD) + (WINJ)
{
// well no 1 - PROD
using Ix = ::Opm::RestartIO::Helpers::VectorItems::SConn::index;
const auto& sconn = amconn.getSConn();
int connNo = 1;
auto i0 = (connNo - 1) * ih.nsconz;
BOOST_CHECK_CLOSE(sconn[i0 + Ix::ConnTrans], 2.55826545, 1.0e-5); // PROD - conn 1 : Transmissibility factor
BOOST_CHECK_CLOSE(sconn[i0 + Ix::Depth], 7050., 1.0e-5); // PROD - conn 1 : Centre depth
BOOST_CHECK_CLOSE(sconn[i0 + Ix::Diameter], 0.20, 1.0e-5); // PROD - conn 1 : diameter
BOOST_CHECK_CLOSE(sconn[i0 + Ix::EffectiveKH], 1581.13879, 1.0e-5); // PROD - conn 1 : effective kh-product
BOOST_CHECK_CLOSE(sconn[i0 + Ix::item12], 2.55826545, 1.0e-5); // PROD - conn 1 : Transmissibility factor
BOOST_CHECK_CLOSE(
sconn[i0 + Ix::SegDistEnd], 130., 1.0e-5); // PROD - conn 1 : Distance to end of connection in segment
BOOST_CHECK_CLOSE(
sconn[i0 + Ix::SegDistStart], 30., 1.0e-5); // PROD - conn 1 : Distance to start of connection in segment
// Well no 2 - WINJ well
connNo = 3;
i0 = ih.ncwmax * ih.nsconz + (connNo - 1) * ih.nsconz;
BOOST_CHECK_CLOSE(sconn[i0 + Ix::ConnTrans], 2.55826545, 1.0e-5); // WINJ - conn 3 : Transmissibility factor
BOOST_CHECK_CLOSE(sconn[i0 + Ix::Depth], 7250., 1.0e-5); // WINJ - conn 3 : Centre depth
BOOST_CHECK_CLOSE(sconn[i0 + Ix::Diameter], 0.20, 1.0e-5); // WINJ - conn 3 : diameter
BOOST_CHECK_CLOSE(sconn[i0 + Ix::EffectiveKH], 1581.13879, 1.0e-5); // WINJ - conn 3 : effective kh-product
BOOST_CHECK_CLOSE(sconn[i0 + Ix::item12], 2.55826545, 1.0e-5); // WINJ - conn 3 : Transmissibility factor
BOOST_CHECK_CLOSE(
sconn[i0 + Ix::SegDistEnd], 0., 1.0e-5); // WINJ - conn 3 : Distance to end of connection in segment
BOOST_CHECK_CLOSE(
sconn[i0 + Ix::SegDistStart], 0., 1.0e-5); // WINJ - conn 3 : Distance to start of connection in segment
connNo = 4;
i0 = ih.ncwmax * ih.nsconz + (connNo - 1) * ih.nsconz;
BOOST_CHECK_CLOSE(sconn[i0 + Ix::ConnTrans], 2.55826545, 1.0e-5); // WINJ - conn 4 : Transmissibility factor
BOOST_CHECK_CLOSE(sconn[i0 + Ix::Depth], 7250., 1.0e-5); // WINJ - conn 4 : Centre depth
BOOST_CHECK_CLOSE(sconn[i0 + Ix::Diameter], 0.20, 1.0e-5); // WINJ - conn 4 : diameter
BOOST_CHECK_CLOSE(sconn[i0 + Ix::EffectiveKH], 1581.13879, 1.0e-5); // WINJ - conn 4 : effective kh-product
BOOST_CHECK_CLOSE(sconn[i0 + Ix::item12], 2.55826545, 1.0e-5); // WINJ - conn 4 : Transmissibility factor
BOOST_CHECK_CLOSE(
sconn[i0 + Ix::SegDistEnd], 0., 1.0e-5); // WINJ - conn 4 : Distance to end of connection in segment
BOOST_CHECK_CLOSE(
sconn[i0 + Ix::SegDistStart], 0., 1.0e-5); // WINJ - conn 4 : Distance to start of connection in segment
}
// XCONN (PROD) + (WINJ)
{
using Ix = ::Opm::RestartIO::Helpers::VectorItems::XConn::index;
const auto& units = simCase.es.getUnits();
using M = ::Opm::UnitSystem::measure;
const auto& xconn = amconn.getXConn();
// PROD well
int connNo = 1;
auto i0 = (connNo - 1) * ih.nxconz;
BOOST_CHECK_CLOSE(xconn[i0 + Ix::OilRate],
-units.from_si(M::liquid_surface_rate, 5. * (float(connNo))),
1.0e-5); // PROD - conn 1 : Surface oil rate
BOOST_CHECK_CLOSE(xconn[i0 + Ix::WaterRate],
-units.from_si(M::liquid_surface_rate, 4. * (float(connNo))),
1.0e-5); // PROD - conn 1 : Surface water rate
BOOST_CHECK_CLOSE(xconn[i0 + Ix::GasRate],
-units.from_si(M::gas_surface_rate, 50. * (float(connNo))),
1.0e-5); // PROD - conn 1 : Surface gas rate
BOOST_CHECK_CLOSE(
xconn[i0 + Ix::Pressure], units.from_si(M::pressure, 215.), 1.0e-5); // PROD - conn 1 : Connection pressure
BOOST_CHECK_CLOSE(xconn[i0 + Ix::ResVRate], 0., 1.0e-5); // PROD - conn 1 : Reservoir volume rate
// WINJ well
connNo = 3;
i0 = ih.ncwmax * ih.nxconz + (connNo - 1) * ih.nxconz;
BOOST_CHECK_CLOSE(xconn[i0 + Ix::WaterRate],
-units.from_si(M::liquid_surface_rate, 7. * (float(connNo))),
1.0e-5); // WINJ - conn 3 : Surface water rate
BOOST_CHECK_CLOSE(
xconn[i0 + Ix::Pressure], units.from_si(M::pressure, 218.), 1.0e-5); // WINJ - conn 3 : Connection pressure
BOOST_CHECK_CLOSE(xconn[i0 + Ix::ResVRate], 0., 1.0e-5); // WINJ - conn 3 : Reservoir volume rate
connNo = 4;
i0 = ih.ncwmax * ih.nxconz + (connNo - 1) * ih.nxconz;
BOOST_CHECK_CLOSE(xconn[i0 + Ix::WaterRate],
-units.from_si(M::liquid_surface_rate, 7. * (float(connNo))),
1.0e-5); // WINJ - conn 3 : Surface water rate
BOOST_CHECK_CLOSE(
xconn[i0 + Ix::Pressure], units.from_si(M::pressure, 218.), 1.0e-5); // WINJ - conn 3 : Connection pressure
BOOST_CHECK_CLOSE(xconn[i0 + Ix::ResVRate], 0., 1.0e-5); // WINJ - conn 3 : Reservoir volume rate
}
}
BOOST_AUTO_TEST_CASE(InactiveCell) {
auto simCase = SimulationCase{first_sim()};
const auto rptStep = std::size_t{1};
const auto ih = MockIH {static_cast<int>(simCase.sched.getWells(rptStep).size())};
const Opm::data::WellRates wrc = wr(simCase.sched);
auto conn0 = Opm::RestartIO::Helpers::AggregateConnectionData{ih.value};
conn0.captureDeclaredConnData(simCase.sched,
simCase.grid,
simCase.es.getUnits(),
wrc,
rptStep
);
std::vector<int> actnum(500, 1);
// Here we deactive the cell holding connection number 2.
actnum[simCase.grid.getGlobalIndex(2,4,1)] = 0;
simCase.grid.resetACTNUM(actnum);
auto conn1 = Opm::RestartIO::Helpers::AggregateConnectionData{ih.value};
conn1.captureDeclaredConnData(simCase.sched,
simCase.grid,
simCase.es.getUnits(),
wrc,
rptStep
);
const std::size_t num_test_connections = 4;
{
using IC = ::Opm::RestartIO::Helpers::VectorItems::IConn::index;
const auto iconn0 = conn0.getIConn();
const auto iconn1 = conn1.getIConn();
for (std::size_t conn_index = 0; conn_index < num_test_connections; conn_index++) {
std::size_t offset1 = conn_index * ih.niconz;
std::size_t offset0 = offset1;
if (conn_index >= 2)
offset0 += ih.niconz;
for (std::size_t elm_index = 0; elm_index < ih.niconz; elm_index++) {
if (elm_index == IC::SeqIndex && conn_index >= 2) {
// Comparing the connection ID - which should be different;
BOOST_CHECK_EQUAL(iconn1[offset1 + elm_index] + 1 , iconn0[offset0 + elm_index]);
} else
BOOST_CHECK_EQUAL(iconn1[offset1 + elm_index], iconn0[offset0 + elm_index]);
}
}
}
{
const auto sconn0 = conn0.getSConn();
const auto sconn1 = conn1.getSConn();
for (std::size_t conn_index = 0; conn_index < num_test_connections; conn_index++) {
std::size_t offset1 = conn_index * ih.nsconz;
std::size_t offset0 = offset1;
if (conn_index >= 2)
offset0 += ih.nsconz;
for (std::size_t elm_index = 0; elm_index < ih.nsconz; elm_index++)
BOOST_CHECK_EQUAL(sconn1[offset1 + elm_index], sconn0[offset0 + elm_index]);
}
}
{
const auto xconn0 = conn0.getXConn();
const auto xconn1 = conn1.getXConn();
for (std::size_t conn_index = 0; conn_index < num_test_connections; conn_index++) {
std::size_t offset1 = conn_index * ih.nxconz;
std::size_t offset0 = offset1;
if (conn_index >= 2)
offset0 += ih.nxconz;
for (std::size_t elm_index = 0; elm_index < ih.nxconz; elm_index++)
BOOST_CHECK_EQUAL(xconn1[offset1 + elm_index], xconn0[offset0 + elm_index]);
}
}
}
BOOST_AUTO_TEST_SUITE_END()
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