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New private Summary implementation

Browse Source 
A rewritten Summary.cpp with some minor header modifications. Synposis
of the new implementation:

* Uses unordered_map< string, std::function > for dispatch, instead of
  multiple functions and a switch
* Some poor man's function composition support has been added
  (privately) to avoid a lot of reptition in the post processing.
* Functions assume they work over lists of wells instead of single wells
  being special cased - this means groups of well etc. can share
  implementation with single wells and field keywords.
* Unsupported keywords are not written in the Summary file.

Furthermore, some comments on special cases and overall approach and
a generally more declarative implementation. This change is invisible to
downstream developers. Users will obviously see no more garbage
keywords.
This commit is contained in:
Jørgen Kvalsvik 2016-06-15 10:45:07 +02:00
parent 66103cd2a0
commit 0c0a548219
3 changed files with 340 additions and 606 deletions
Show Stats Download Patch File Download Diff File Expand all files Collapse all files

18
opm/output/eclipse/Summary.hpp
View File

@ -21,16 +21,16 @@
#define OPM_OUTPUT_SUMMARY_HPP #define OPM_OUTPUT_SUMMARY_HPP
#include <string> #include <string>
#include <vector>
#include <ert/ecl/ecl_sum.h> #include <ert/ecl/ecl_sum.h>
#include <ert/util/ert_unique_ptr.hpp> #include <ert/ecl/Smspec.hpp>
#include <opm/output/Wells.hpp> #include <opm/output/Wells.hpp>
namespace Opm { namespace Opm {
class EclipseState; class EclipseState;
class Schedule;
class SummaryConfig; class SummaryConfig;
namespace out { namespace out {
@ -45,19 +45,13 @@ class Summary {
const EclipseState&, const data::Wells& ); const EclipseState&, const data::Wells& );
void write(); void write();
using kwtype = uint32_t; ~Summary();
struct sum_node {
sum_node( kwtype k, smspec_node_type* n ) :
kw( k ), node( n ) {}
kwtype kw;
smspec_node_type* node;
};
private: private:
class keyword_handlers;
ERT::ert_unique_ptr< ecl_sum_type, ecl_sum_free > ecl_sum; ERT::ert_unique_ptr< ecl_sum_type, ecl_sum_free > ecl_sum;
std::map< const char*, std::vector< sum_node > > wvar; std::unique_ptr< keyword_handlers > handlers;
std::map< const char*, std::vector< sum_node > > gvar;
const ecl_sum_tstep_type* prev_tstep = nullptr; const ecl_sum_tstep_type* prev_tstep = nullptr;
double prev_time_elapsed = 0; double prev_time_elapsed = 0;
}; };

903
src/opm/output/eclipse/Summary.cpp
View File

@ -29,223 +29,113 @@
#include <opm/parser/eclipse/EclipseState/SummaryConfig/SummaryConfig.hpp> #include <opm/parser/eclipse/EclipseState/SummaryConfig/SummaryConfig.hpp>
#include <opm/parser/eclipse/Units/UnitSystem.hpp> #include <opm/parser/eclipse/Units/UnitSystem.hpp>
/*
* This class takes simulator state and parser-provided information and
* orchestrates ert to write simulation results as requested by the SUMMARY
* section in eclipse. The implementation is somewhat compact as a lot of the
* requested output may be similar-but-not-quite. Through various techniques
* the compiler writes a lot of this code for us.
*/
namespace Opm { namespace Opm {
namespace { namespace {
/*
* A series of helper functions to read & compute values from the simulator,
* intended to clean up the keyword -> action mapping in the *_keyword
* functions.
*/
using rt = data::Rates::opt; using rt = data::Rates::opt;
/* The supported Eclipse keywords */
enum class E : out::Summary::kwtype {
WBHP,
WBHPH,
WGIR,
WGIRH,
WGIT,
WGITH,
WGOR,
WGORH,
WGLR,
WGLRH,
WGPR,
WGPRH,
WGPT,
WGPTH,
WLPR,
WLPRH,
WLPT,
WLPTH,
WOIR,
WOIRH,
WOIT,
WOITH,
WOPR,
WOPRH,
WOPT,
WOPTH,
WTHP,
WTHPH,
WWCT,
WWCTH,
WWIR,
WWIRH,
WWIT,
WWITH,
WWPR,
WWPRH,
WWPT,
WWPTH,
GWPT,
GOPT,
GGPT,
GWPR,
GOPR,
GLPR,
GGPR,
GWIR,
GWIT,
GGIR,
GGIT,
GGIRH,
GWIRH,
GOIRH,
GGITH,
GWITH,
GWPRH,
GOPRH,
GGPRH,
GLPRH,
GWPTH,
GOPTH,
GGPTH,
GLPTH,
GWCT,
GGOR,
UNSUPPORTED,
};
const std::map< std::string, E > keyhash = {
{ "WBHP", E::WBHP },
{ "WBHPH", E::WBHPH },
{ "WGIR", E::WGIR },
{ "WGIRH", E::WGIRH },
{ "WGIT", E::WGIT },
{ "WGITH", E::WGITH },
{ "WGOR", E::WGOR },
{ "WGORH", E::WGORH },
{ "WGLR", E::WGLR },
{ "WGLRH", E::WGLRH },
{ "WGPR", E::WGPR },
{ "WGPRH", E::WGPRH },
{ "WGPT", E::WGPT },
{ "WGPTH", E::WGPTH },
{ "WLPR", E::WLPR },
{ "WLPRH", E::WLPRH },
{ "WLPT", E::WLPT },
{ "WLPTH", E::WLPTH },
{ "WOIR", E::WOIR },
{ "WOIRH", E::WOIRH },
{ "WOIT", E::WOIT },
{ "WOITH", E::WOITH },
{ "WOPR", E::WOPR },
{ "WOPRH", E::WOPRH },
{ "WOPT", E::WOPT },
{ "WOPTH", E::WOPTH },
{ "WTHP", E::WTHP },
{ "WTHPH", E::WTHPH },
{ "WWCT", E::WWCT },
{ "WWCTH", E::WWCTH },
{ "WWIR", E::WWIR },
{ "WWIRH", E::WWIRH },
{ "WWIT", E::WWIT },
{ "WWITH", E::WWITH },
{ "WWPR", E::WWPR },
{ "WWPRH", E::WWPRH },
{ "WWPT", E::WWPT },
{ "WWPTH", E::WWPTH },
{ "GWPT", E::GWPT },
{ "GOPT", E::GOPT },
{ "GGPT", E::GGPT },
{ "GWPR", E::GWPR },
{ "GOPR", E::GOPR },
{ "GLPR", E::GLPR },
{ "GGPR", E::GGPR },
{ "GWIR", E::GWIR },
{ "GWIT", E::GWIT },
{ "GGIR", E::GGIR },
{ "GWPRH", E::GWPRH },
{ "GOPRH", E::GOPRH },
{ "GGPRH", E::GGPRH },
{ "GLPRH", E::GLPRH },
{ "GWPTH", E::GWPTH },
{ "GOPTH", E::GOPTH },
{ "GGPTH", E::GGPTH },
{ "GLPTH", E::GLPTH },
{ "GGIRH", E::GGIRH },
{ "GWIRH", E::GWIRH },
{ "GOIRH", E::GOIRH },
{ "GGIT", E::GGIT },
{ "GWITH", E::GWITH },
{ "GGITH", E::GGITH },
{ "GWCT", E::GWCT },
{ "GGOR", E::GGOR },
};
inline E khash( const char* key ) {
/* Since a switch is used to determine the proper computation from the
* input node, but keywords are stored as strings, we need a string -> enum
* mapping for keywords.
*/
auto itr = keyhash.find( key );
if( itr == keyhash.end() ) return E::UNSUPPORTED;
return itr->second;
}
inline double wct( double wat, double oil ) {
/* handle div-by-zero - if this well is shut, all production rates will be
* zero and there is no cut (i.e. zero). */
if( oil == 0 ) return 0;
return wat / ( wat + oil );
}
inline double wwcth( const Well& w, size_t ts ) {
/* From our point of view, injectors don't have meaningful water cuts. */
if( w.isInjector( ts ) ) return 0;
const auto& p = w.getProductionProperties( ts );
return wct( p.WaterRate, p.OilRate );
}
inline double glr( double gas, double liq ) {
/* handle div-by-zero - if this well is shut, all production rates will be
* zero and there is no gas/oil ratio, (i.e. zero).
*
* Also, if this is a gas well that produces no liquid, gas/liquid ratio
* would be undefined and is explicitly set to 0. This is the author's best
* guess. If other semantics when just gas is produced, this must be
* changed.
*/
if( liq == 0 ) return 0;
return gas / liq;
}
inline double wgorh( const Well& w, size_t ts ) {
/* We do not support mixed injections, and gas/oil is undefined when oil is
* zero (i.e. pure gas injector), so always output 0 if this is an injector
*/
if( w.isInjector( ts ) ) return 0;
const auto& p = w.getProductionProperties( ts );
return glr( p.GasRate, p.OilRate );
}
inline double wglrh( const Well& w, size_t ts ) {
/* We do not support mixed injections, and gas/oil is undefined when oil is
* zero (i.e. pure gas injector), so always output 0 if this is an injector
*/
if( w.isInjector( ts ) ) return 0;
const auto& p = w.getProductionProperties( ts );
return glr( p.GasRate, p.WaterRate + p.OilRate );
}
using measure = UnitSystem::measure; using measure = UnitSystem::measure;
enum class WT { wat, oil, gas };
inline double prodrate( const Well& w,
size_t timestep,
WT wt,
const UnitSystem& units ) {
/* Some numerical value with its unit tag embedded to enable caller to apply
* unit conversion. This removes a ton of boilerplate.
*
* Some arithmetic operations are supported, which also codifies the following
* assumptions:
* * Division by zero, such as in gas/oil ratios without oil, shall default to 0
* * Division typically happen to calculate ratios, in which case unit
* conversion is a no-op
* * When performing an operation on two operands, the left operand's unit is
* applied, meaning arithmetic is **not** associative with respect to units.
*/
struct quantity {
double value;
UnitSystem::measure unit;
quantity operator+( const quantity& rhs ) const {
return { this->value + rhs.value, this->unit };
}
quantity operator*( const quantity& rhs ) const {
return { this->value * rhs.value, this->unit };
}
quantity operator/( const quantity& rhs ) const {
if( rhs.value == 0 ) return { 0.0, measure::identity };
return { this->value / rhs.value, measure::identity };
}
};
/*
* All functions must have the same parameters, so they're gathered in a struct
* and functions use whatever information they care about.
*
* ecl_wells are wells from the deck, provided by opm-parser. wells is
* simulation data
*/
struct fn_args {
const std::vector< const Well* >& ecl_wells;
double duration;
size_t timestep;
const data::Wells& wells;
};
/* Since there are several enums in opm scattered about more-or-less
* representing the same thing. Since functions use template parameters to
* expand into the actual implementations we need a static way to determine
* what unit to tag the return value with.
*/
template< rt > constexpr
measure rate_unit() { return measure::liquid_surface_rate; }
template< Phase::PhaseEnum > constexpr
measure rate_unit() { return measure::liquid_surface_rate; }
template<> constexpr
measure rate_unit< rt::gas >() { return measure::gas_surface_rate; }
template<> constexpr
measure rate_unit< Phase::GAS >() { return measure::gas_surface_rate; }
template< rt phase >
inline quantity rate( const fn_args& args ) {
double sum = 0.0;
for( const auto* ecl_well : args.ecl_wells ) {
if( args.wells.wells.count( ecl_well->name() ) == 0 ) continue;
sum += args.wells.at( ecl_well->name() ).rates.get( phase, 0.0 );
}
return { sum, rate_unit< phase >() };
}
inline quantity bhp( const fn_args& args ) {
assert( args.ecl_wells.size() == 1 );
const auto p = args.wells.wells.find( args.ecl_wells.front()->name() );
if( p == args.wells.wells.end() )
return { 0, measure::pressure };
return { p->second.bhp, measure::pressure };
}
inline quantity thp( const fn_args& args ) {
assert( args.ecl_wells.size() == 1 );
const auto p = args.wells.wells.find( args.ecl_wells.front()->name() );
if( p == args.wells.wells.end() )
return { 0, measure::pressure };
return { p->second.thp, measure::pressure };
}
template< Phase::PhaseEnum phase >
inline quantity production_history( const fn_args& args ) {
/* /*
* For well data, looking up historical rates (both for production and * For well data, looking up historical rates (both for production and
* injection) before simulation actually starts is impossible and * injection) before simulation actually starts is impossible and
@ -260,351 +150,221 @@ inline double prodrate( const Well& w,
* special-case timestep N == 0, and for all other timesteps look up the * special-case timestep N == 0, and for all other timesteps look up the
* value *reported* at N-1 which applies to timestep N. * value *reported* at N-1 which applies to timestep N.
*/ */
if( timestep == 0 ) return 0.0; if( args.timestep == 0 ) return { 0.0, rate_unit< phase >() };
if( !w.isProducer( timestep - 1 ) ) return 0; const auto timestep = args.timestep - 1;
const auto& p = w.getProductionProperties( timestep - 1 ); double sum = 0.0;
switch( wt ) { for( const Well* ecl_well : args.ecl_wells )
case WT::wat: return units.from_si( measure::liquid_surface_rate, p.WaterRate ); sum += ecl_well->production_rate( phase, timestep );
case WT::oil: return units.from_si( measure::liquid_surface_rate, p.OilRate );
case WT::gas: return units.from_si( measure::gas_surface_rate, p.GasRate ); return { sum, rate_unit< phase >() };
}
template< Phase::PhaseEnum phase >
inline quantity injection_history( const fn_args& args ) {
if( args.timestep == 0 ) return { 0.0, rate_unit< phase >() };
const auto timestep = args.timestep - 1;
double sum = 0.0;
for( const Well* ecl_well : args.ecl_wells )
sum += ecl_well->injection_rate( phase, timestep );
return { sum, rate_unit< phase >() };
}
/*
* A small DSL, really poor man's function composition, to avoid massive
* repetition when declaring the handlers for each individual keyword. bin_op
* and its aliases will apply the pair of functions F and G that all take const
* fn_args& and return quantity, making them composable.
*/
template< typename F, typename G, typename Op >
struct bin_op {
bin_op( F fn, G gn = {} ) : f( fn ), g( gn ) {}
quantity operator()( const fn_args& args ) const {
return Op()( f( args ), g( args ) );
} }
throw std::runtime_error( "Reached impossible state in prodrate" ); private:
} F f;
G g;
};
inline double prodvol( const Well& w, struct duration {
double duration, quantity operator()( const fn_args& args ) const {
size_t timestep, return { args.duration, measure::identity };
WT wt, }
const UnitSystem& units ) { };
if( timestep == 0 ) return 0.0; /* constant also uses the arithmetic-gets-left-hand-as-unit assumption, meaning
* it can also be used for unit conversion.
*/
template< int N, measure M = measure::identity >
struct constant {
quantity operator()( const fn_args& args ) const { return { N, M }; }
};
const auto rate = prodrate( w, timestep, wt, units ); using const_liq = constant< 1, measure::liquid_surface_volume >;
return rate * duration * units.from_si( measure::time, 1 ); using const_gas = constant< 1, measure::gas_surface_volume >;
}
inline double injerate( const Well& w, template< typename F, typename G >
size_t timestep, using mul = bin_op< F, G, std::multiplies< quantity > >;
WellInjector::TypeEnum wt,
const UnitSystem& units ) {
if( timestep == 0 ) return 0.0; template< typename F, typename G >
auto sum( F f, G g ) -> bin_op< F, G, std::plus< quantity > > { return { f, g }; }
if( !w.isInjector( timestep - 1 ) ) return 0; template< typename F, typename G >
const auto& i = w.getInjectionProperties( timestep - 1 ); auto div( F f, G g ) -> bin_op< F, G, std::divides< quantity > > { return { f, g }; }
/* we don't support mixed injectors, so querying a water injector for template< typename F >
* gas rate gives 0.0 auto negate( F f ) -> mul< F, constant< -1 > > { return { f }; }
template< typename F >
auto liq_vol( F f ) -> mul< const_liq, mul< F, duration > >
{ return { const_liq(), f }; }
template< typename F >
auto gas_vol( F f ) -> mul< const_gas, mul< F, duration > >
{ return { const_gas(), f }; }
using ofun = std::function< quantity( const fn_args& ) >;
static const std::unordered_map< std::string, ofun > funs = {
{ "WWIR", rate< rt::wat > },
{ "WOIR", rate< rt::oil > },
{ "WGIR", rate< rt::gas > },
{ "WWIT", liq_vol( rate< rt::wat > ) },
{ "WOIT", liq_vol( rate< rt::oil > ) },
{ "WGIT", gas_vol( rate< rt::gas > ) },
{ "WWPR", negate( rate< rt::wat > ) },
{ "WOPR", negate( rate< rt::oil > ) },
{ "WGPR", negate( rate< rt::gas > ) },
{ "WLPR", negate( sum( rate< rt::wat >, rate< rt::oil > ) ) },
{ "WWPT", negate( liq_vol( rate< rt::wat > ) ) },
{ "WOPT", negate( liq_vol( rate< rt::oil > ) ) },
{ "WGPT", negate( gas_vol( rate< rt::gas > ) ) },
{ "WLPT", negate( liq_vol( sum( rate< rt::wat >, rate< rt::oil > ) ) ) },
{ "WWCT", div( rate< rt::wat >,
sum( rate< rt::wat >, rate< rt::oil > ) ) },
{ "GWCT", div( rate< rt::wat >,
sum( rate< rt::wat >, rate< rt::oil > ) ) },
{ "WGOR", div( rate< rt::gas >, rate< rt::oil > ) },
{ "GGOR", div( rate< rt::gas >, rate< rt::oil > ) },
{ "WGLR", div( rate< rt::gas >,
sum( rate< rt::wat >, rate< rt::oil > ) ) },
{ "WBHP", bhp },
{ "WTHP", thp },
{ "GWIR", rate< rt::wat > },
{ "GOIR", rate< rt::oil > },
{ "GGIR", rate< rt::gas > },
{ "GWIT", liq_vol( rate< rt::wat > ) },
{ "GOIT", liq_vol( rate< rt::oil > ) },
{ "GGIT", gas_vol( rate< rt::gas > ) },
{ "GWPR", negate( rate< rt::wat > ) },
{ "GOPR", negate( rate< rt::oil > ) },
{ "GGPR", negate( rate< rt::gas > ) },
{ "GLPR", negate( sum( rate< rt::wat >, rate< rt::oil > ) ) },
{ "GWPT", negate( liq_vol( rate< rt::wat > ) ) },
{ "GOPT", negate( liq_vol( rate< rt::oil > ) ) },
{ "GGPT", negate( gas_vol( rate< rt::gas > ) ) },
{ "GLPT", negate( liq_vol( sum( rate< rt::wat >, rate< rt::oil > ) ) ) },
{ "WWPRH", production_history< Phase::WATER > },
{ "WOPRH", production_history< Phase::OIL > },
{ "WGPRH", production_history< Phase::GAS > },
{ "WLPRH", sum( production_history< Phase::WATER >,
production_history< Phase::OIL > ) },
{ "WWPTH", liq_vol( production_history< Phase::WATER > ) },
{ "WOPTH", liq_vol( production_history< Phase::OIL > ) },
{ "WGPTH", gas_vol( production_history< Phase::GAS > ) },
{ "WLPTH", liq_vol( sum( production_history< Phase::WATER >,
production_history< Phase::OIL > ) ) },
{ "WWIRH", injection_history< Phase::WATER > },
{ "WOIRH", injection_history< Phase::OIL > },
{ "WGIRH", injection_history< Phase::GAS > },
{ "WWITH", liq_vol( injection_history< Phase::WATER > ) },
{ "WOITH", liq_vol( injection_history< Phase::OIL > ) },
{ "WGITH", gas_vol( injection_history< Phase::GAS > ) },
/* From our point of view, injectors don't have water cuts and div/sum will return 0.0 */
{ "WWCTH", div( production_history< Phase::WATER >,
sum( production_history< Phase::WATER >,
production_history< Phase::OIL > ) ) },
/* We do not support mixed injections, and gas/oil is undefined when oil is
* zero (i.e. pure gas injector), so always output 0 if this is an injector
*/ */
if( wt != i.injectorType ) return 0; { "WGORH", div( production_history< Phase::GAS >,
production_history< Phase::OIL > ) },
{ "WGLRH", div( production_history< Phase::GAS >,
sum( production_history< Phase::WATER >,
production_history< Phase::OIL > ) ) },
if( wt == WellInjector::GAS ) { "GWPRH", production_history< Phase::WATER > },
return units.from_si( UnitSystem::measure::gas_surface_rate, { "GOPRH", production_history< Phase::OIL > },
i.surfaceInjectionRate ); { "GGPRH", production_history< Phase::GAS > },
{ "GLPRH", sum( production_history< Phase::WATER >,
production_history< Phase::OIL > ) },
{ "GWIRH", injection_history< Phase::WATER > },
{ "GOIRH", injection_history< Phase::OIL > },
{ "GGIRH", injection_history< Phase::GAS > },
return units.from_si( UnitSystem::measure::liquid_surface_rate, { "GWPTH", liq_vol( production_history< Phase::WATER > ) },
i.surfaceInjectionRate ); { "GOPTH", liq_vol( production_history< Phase::OIL > ) },
} { "GGPTH", gas_vol( production_history< Phase::GAS > ) },
{ "GLPTH", liq_vol( sum( production_history< Phase::WATER >,
production_history< Phase::OIL > ) ) },
{ "GWITH", liq_vol( injection_history< Phase::WATER > ) },
{ "GGITH", gas_vol( injection_history< Phase::GAS > ) },
};
inline double injevol( const Well& w, inline std::vector< const Well* > find_wells( const Schedule& schedule,
double duration, const smspec_node_type* node,
size_t timestep, size_t timestep ) {
WellInjector::TypeEnum wt,
const UnitSystem& units ) {
if( timestep == 0 ) return 0.0; const auto* name = smspec_node_get_wgname( node );
const auto type = smspec_node_get_var_type( node );
const auto rate = injerate( w, timestep - 1, wt, units ); if( type == ECL_SMSPEC_WELL_VAR ) {
return rate * duration * units.from_si( measure::time, 1 ); const auto* well = schedule.getWell( name );
} if( !well ) return {};
return { well };
inline double get_rate( const data::Well& w,
rt phase,
const UnitSystem& units ) {
const auto rate = w.rates.get( phase, 0.0 );
switch( phase ) {
case rt::gas: return units.from_si( measure::gas_surface_rate, rate );
default: return units.from_si( measure::liquid_surface_rate, rate );
}
}
inline double get_vol( const data::Well& w,
double duration,
rt phase,
const UnitSystem& units ) {
const auto vol = duration * w.rates.get( phase, 0.0 );
switch( phase ) {
case rt::gas: units.from_si( measure::gas_surface_volume, vol );
default: return units.from_si( measure::liquid_surface_volume, vol );
}
}
inline double well_keywords( E keyword,
const smspec_node_type* node,
const ecl_sum_tstep_type* prev,
double duration,
const UnitSystem& units,
const data::Well& sim_well,
const Well& state_well,
size_t tstep ) {
const auto* genkey = smspec_node_get_gen_key1( node );
const auto accu = prev ? ecl_sum_tstep_get_from_key( prev, genkey ) : 0;
/* Keyword families tend to share parameters. Since C++'s support for
* partial application or currying is somewhat clunky (std::bind), we grow
* our own with a handful of lambdas. The optimizer might be able to
* reorder this function so that only the needed lambda is created (or even
* better - inline it). This is not really a very performance sensitive
* function, so regardless of optimisation conciseness triumphs.
*
* The binding of lambdas is also done for groups, fields etc.
*/
const auto rate = [&]( rt phase )
{ return get_rate( sim_well, phase, units ); };
const auto vol = [&]( rt phase )
{ return get_vol( sim_well, duration, phase, units ); };
const auto histprate = [&]( WT phase )
{ return prodrate( state_well, tstep, phase, units ); };
const auto histpvol = [&]( WT phase )
{ return prodvol( state_well, duration, tstep, phase, units ); };
const auto histirate = [&]( WellInjector::TypeEnum phase )
{ return injerate( state_well, tstep, phase, units ); };
const auto histivol = [&]( WellInjector::TypeEnum phase )
{ return injevol( state_well, duration, tstep, phase, units ); };
switch( keyword ) {
/* Production rates */
case E::WWPR: return - rate( rt::wat );
case E::WOPR: return - rate( rt::oil );
case E::WGPR: return - rate( rt::gas );
case E::WLPR: return - ( rate( rt::wat ) + rate( rt::oil ) );
/* Production totals */
case E::WWPT: return accu - vol( rt::wat );
case E::WOPT: return accu - vol( rt::oil );
case E::WGPT: return accu - vol( rt::gas );
case E::WLPT: return accu - ( vol( rt::wat ) + vol( rt::oil ) );
/* Production history rates */
case E::WWPRH: return histprate( WT::wat );
case E::WOPRH: return histprate( WT::oil );
case E::WGPRH: return histprate( WT::gas );
case E::WLPRH: return histprate( WT::wat ) + histprate( WT::oil );
/* Production history totals */
case E::WWPTH: return accu + histpvol( WT::wat );
case E::WOPTH: return accu + histpvol( WT::oil );
case E::WGPTH: return accu + histpvol( WT::gas );
case E::WLPTH: return accu + histpvol( WT::wat ) + histpvol( WT::oil );
/* Production ratios */
case E::WWCT: return wct( rate( rt::wat ), rate( rt::oil ) );
case E::WWCTH: return wwcth( state_well, tstep );
case E::WGOR: return glr( rate( rt::gas ), rate( rt::oil ) );
case E::WGORH: return wgorh( state_well, tstep );
case E::WGLR: return glr( rate( rt::gas ),
rate( rt::wat ) + rate( rt::oil ) );
case E::WGLRH: return wglrh( state_well, tstep );
/* Pressures */
case E::WBHP: return units.from_si( UnitSystem::measure::pressure, sim_well.bhp );
case E::WBHPH: return 0; /* not supported */
case E::WTHP: return units.from_si( UnitSystem::measure::pressure, sim_well.thp );
case E::WTHPH: return 0; /* not supported */
/* Injection rates */
case E::WWIR: return rate( rt::wat );
case E::WOIR: return rate( rt::oil );
case E::WGIR: return rate( rt::gas );
case E::WWIT: return accu + vol( rt::wat );
case E::WOIT: return accu + vol( rt::oil );
case E::WGIT: return accu + vol( rt::gas );
case E::WWIRH: return histirate( WellInjector::WATER );
case E::WOIRH: return histirate( WellInjector::OIL );
case E::WGIRH: return histirate( WellInjector::GAS );
case E::WWITH: return accu + histivol( WellInjector::WATER );
case E::WOITH: return accu + histivol( WellInjector::OIL );
case E::WGITH: return accu + histivol( WellInjector::GAS );
case E::UNSUPPORTED:
default:
return -1;
}
}
inline double sum( const std::vector< const data::Well* >& wells, rt phase ) {
double res = 0;
for( const auto* well : wells )
res += well->rates.get( phase, 0 );
return res;
}
inline double sum_rate( const std::vector< const data::Well* >& wells,
rt phase,
const UnitSystem& units ) {
switch( phase ) {
case rt::wat: /* intentional fall-through */
case rt::oil: return units.from_si( UnitSystem::measure::liquid_surface_rate,
sum( wells, phase ) );
case rt::gas: return units.from_si( UnitSystem::measure::gas_surface_rate,
sum( wells, phase ) );
default: break;
} }
throw std::runtime_error( "Reached impossible state in sum_rate" ); if( type == ECL_SMSPEC_GROUP_VAR ) {
} const auto* group = schedule.getGroup( name );
if( !group ) return {};
inline double sum_vol( const std::vector< const data::Well* >& wells, std::vector< const Well* > wells;
double duration, for( const auto& pair : group->getWells( timestep ) )
rt phase, wells.push_back( pair.second );
const UnitSystem& units ) {
switch( phase ) { return wells;
case rt::wat: /* intentional fall-through */
case rt::oil: return units.from_si( measure::liquid_surface_volume,
duration * sum( wells, phase ) );
case rt::gas: return units.from_si( measure::gas_surface_volume,
duration * sum( wells, phase ) );
default: break;
} }
throw std::runtime_error( "Reached impossible state in sum_vol" ); return {};
}
template< typename F, typename Phase >
inline double sum_hist( F f,
const WellSet& wells,
double duration,
size_t tstep,
Phase phase,
const UnitSystem& units ) {
double res = 0;
for( const auto& well : wells )
res += f( *well.second, duration, tstep, phase, units );
return res;
}
template< typename F, typename Phase >
inline double sum_hist( F f,
const WellSet& wells,
size_t tstep,
Phase phase,
const UnitSystem& units ) {
double res = 0;
for( const auto& well : wells )
res += f( *well.second, tstep, phase, units );
return res;
}
inline double group_keywords( E keyword,
const smspec_node_type* node,
const ecl_sum_tstep_type* prev,
double duration,
const UnitSystem& units,
size_t tstep,
const std::vector< const data::Well* >& sim_wells,
const WellSet& state_wells ) {
const auto* genkey = smspec_node_get_gen_key1( node );
const auto accu = prev ? ecl_sum_tstep_get_from_key( prev, genkey ) : 0;
const auto rate = [&]( rt phase ) {
return sum_rate( sim_wells, phase, units );
};
const auto vol = [&]( rt phase ) {
return sum_vol( sim_wells, duration, phase, units );
};
const auto histprate = [&]( WT phase ) {
return sum_hist( prodrate, state_wells, tstep, phase, units );
};
const auto histpvol = [&]( WT phase ) {
return sum_hist( prodvol, state_wells, duration, tstep, phase, units );
};
const auto histirate = [&]( WellInjector::TypeEnum phase ) {
return sum_hist( injerate, state_wells, tstep, phase, units );
};
const auto histivol = [&]( WellInjector::TypeEnum phase ) {
return sum_hist( injevol, state_wells, duration, tstep, phase, units );
};
switch( keyword ) {
/* Production rates */
case E::GWPR: return - rate( rt::wat );
case E::GOPR: return - rate( rt::oil );
case E::GGPR: return - rate( rt::gas );
case E::GLPR: return (- rate( rt::wat )) + (- rate( rt::oil ));
/* Production totals */
case E::GWPT: return accu - vol( rt::wat );
case E::GOPT: return accu - vol( rt::oil );
case E::GGPT: return accu - vol( rt::gas );
/* Injection rates */
case E::GWIR: return rate( rt::wat );
case E::GGIR: return rate( rt::gas );
case E::GWIT: return accu + vol( rt::wat );
case E::GGIT: return accu + vol( rt::gas );
/* Production ratios */
case E::GWCT: return wct( rate( rt::wat ), rate( rt::oil ) );
case E::GGOR: return glr( rate( rt::gas ), rate( rt::oil ) );
/* Historical rates */
case E::GWPRH: return histprate( WT::wat );
case E::GOPRH: return histprate( WT::oil );
case E::GGPRH: return histprate( WT::gas );
case E::GLPRH: return histprate( WT::wat ) + histprate( WT::oil );
case E::GWIRH: return histirate( WellInjector::WATER );
case E::GOIRH: return histirate( WellInjector::OIL );
case E::GGIRH: return histirate( WellInjector::GAS );
/* Historical totals */
case E::GWPTH: return accu + histpvol( WT::wat );
case E::GOPTH: return accu + histpvol( WT::oil );
case E::GGPTH: return accu + histpvol( WT::gas );
case E::GLPTH: return accu + histpvol( WT::wat ) + histpvol( WT::oil );
case E::GGITH: return accu + histivol( WellInjector::GAS );
case E::GWITH: return accu + histivol( WellInjector::WATER );
default:
return -1;
}
} }
} }
namespace out { namespace out {
class Summary::keyword_handlers {
public:
using fn = ofun;
std::vector< std::pair< smspec_node_type*, fn > > handlers;
};
Summary::Summary( const EclipseState& st, const SummaryConfig& sum ) : Summary::Summary( const EclipseState& st, const SummaryConfig& sum ) :
Summary( st, sum, st.getIOConfig()->fullBasePath().c_str() ) Summary( st, sum, st.getIOConfig()->fullBasePath().c_str() )
{} {}
@ -618,8 +378,8 @@ Summary::Summary( const EclipseState& st,
Summary::Summary( const EclipseState& st, Summary::Summary( const EclipseState& st,
const SummaryConfig& sum, const SummaryConfig& sum,
const char* basename ) : const char* basename ) :
ecl_sum( ecl_sum(
ecl_sum_alloc_writer( ecl_sum_alloc_writer(
basename, basename,
st.getIOConfig()->getFMTOUT(), st.getIOConfig()->getFMTOUT(),
st.getIOConfig()->getUNIFOUT(), st.getIOConfig()->getUNIFOUT(),
@ -630,29 +390,21 @@ Summary::Summary( const EclipseState& st,
st.getInputGrid()->getNY(), st.getInputGrid()->getNY(),
st.getInputGrid()->getNZ() st.getInputGrid()->getNZ()
) )
) ),
handlers( new keyword_handlers() )
{ {
/* register all keywords handlers and pair with the newly-registered ert
* entry.
*/
for( const auto& node : sum ) { for( const auto& node : sum ) {
const auto* keyword = node.keyword();
if( funs.find( keyword ) == funs.end() ) continue;
const auto keyword = khash( node.keyword() ); auto* nodeptr = ecl_sum_add_var( this->ecl_sum.get(), keyword,
node.wgname(), node.num(), "", 0 );
auto* nodeptr = ecl_sum_add_var( this->ecl_sum.get(), node.keyword(), this->handlers->handlers.emplace_back( nodeptr,
node.wgname(), node.num(), "", 0 ); funs.find( keyword )->second );
const auto kw = static_cast< Summary::kwtype >( keyword );
switch( node.type() ) {
case ECL_SMSPEC_WELL_VAR:
this->wvar[ node.wgname() ].emplace_back( kw, nodeptr );
break;
case ECL_SMSPEC_GROUP_VAR:
this->gvar[ node.wgname() ].emplace_back( kw, nodeptr );
break;
default:
break;
}
} }
} }
@ -664,52 +416,22 @@ void Summary::add_timestep( int report_step,
auto* tstep = ecl_sum_add_tstep( this->ecl_sum.get(), report_step, secs_elapsed ); auto* tstep = ecl_sum_add_tstep( this->ecl_sum.get(), report_step, secs_elapsed );
const double duration = secs_elapsed - this->prev_time_elapsed; const double duration = secs_elapsed - this->prev_time_elapsed;
static const data::Well dummy_well = {}; const size_t timestep = report_step;
const auto& schedule = *es.getSchedule();
/* calculate the values for the Well-family of keywords. */ for( auto& f : this->handlers->handlers ) {
for( const auto& pair : this->wvar ) { const auto* genkey = smspec_node_get_gen_key1( f.first );
const auto* wname = pair.first;
const auto& state_well = *es.getSchedule()->getWell( wname ); const auto ecl_wells = find_wells( schedule, f.first, timestep );
const auto& sim_well = wells.wells.find( wname ) != wells.wells.end() const auto val = f.second( { ecl_wells, duration, timestep, wells } );
? wells.at( wname )
: dummy_well;
for( const auto& node : pair.second ) { const auto num_val = val.value > 0 ? val.value : 0.0;
auto val = well_keywords( static_cast< E >( node.kw ), const auto unit_applied_val = es.getUnits().from_si( val.unit, num_val );
node.node, this->prev_tstep, const auto res = smspec_node_is_total( f.first ) && prev_tstep
duration, ? ecl_sum_tstep_get_from_key( prev_tstep, genkey ) + unit_applied_val
es.getUnits(), sim_well, : unit_applied_val;
state_well, report_step );
ecl_sum_tstep_set_from_node(
tstep, node.node, val > 0 ? val : 0.0 );
}
}
/* calculate the values for the Group-family of keywords. */ ecl_sum_tstep_set_from_node( tstep, f.first, res );
for( const auto& pair : this->gvar ) {
const auto* gname = pair.first;
const auto& state_group = *es.getSchedule()->getGroup( gname );
const auto& state_wells = state_group.getWells( report_step );
std::vector< const data::Well* > sim_wells;
for( const auto& well : state_wells ) {
if( wells.wells.find( well.first ) == wells.wells.end() ) continue;
sim_wells.push_back( &wells.at( well.first ) );
}
if( sim_wells.empty() )
sim_wells.push_back( &dummy_well );
for( const auto& node : pair.second ) {
auto val = group_keywords( static_cast< E >( node.kw ),
node.node, this->prev_tstep,
duration,
es.getUnits(), report_step,
sim_wells, state_wells );
ecl_sum_tstep_set_from_node(
tstep, node.node, val > 0 ? val : 0.0 );
}
} }
this->prev_tstep = tstep; this->prev_tstep = tstep;
@ -720,6 +442,7 @@ void Summary::write() {
ecl_sum_fwrite( this->ecl_sum.get() ); ecl_sum_fwrite( this->ecl_sum.get() );
} }
} Summary::~Summary() {}
} }
}

25
tests/test_Summary.cpp
View File

@ -197,9 +197,9 @@ BOOST_AUTO_TEST_CASE(well_keywords) {
BOOST_CHECK_CLOSE( 0, ecl_sum_get_well_var( resp, 1, "W_3", "WGIRH" ), 1e-5 ); BOOST_CHECK_CLOSE( 0, ecl_sum_get_well_var( resp, 1, "W_3", "WGIRH" ), 1e-5 );
/* Injection totals (history) */ /* Injection totals (history) */
BOOST_CHECK_CLOSE( 0, ecl_sum_get_well_var( resp, 1, "W_3", "WWITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 30.0, ecl_sum_get_well_var( resp, 1, "W_3", "WWITH" ), 1e-5 );
BOOST_CHECK_CLOSE( 0, ecl_sum_get_well_var( resp, 1, "W_3", "WGITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 0, ecl_sum_get_well_var( resp, 1, "W_3", "WGITH" ), 1e-5 );
BOOST_CHECK_CLOSE( 30.0, ecl_sum_get_well_var( resp, 2, "W_3", "WWITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 60.0, ecl_sum_get_well_var( resp, 2, "W_3", "WWITH" ), 1e-5 );
BOOST_CHECK_CLOSE( 0, ecl_sum_get_well_var( resp, 2, "W_3", "WGITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 0, ecl_sum_get_well_var( resp, 2, "W_3", "WGITH" ), 1e-5 );
/* WWCT - water cut */ /* WWCT - water cut */
@ -302,9 +302,9 @@ BOOST_AUTO_TEST_CASE(group_keywords) {
BOOST_CHECK_CLOSE( 2 * 30.2, ecl_sum_get_group_var( resp, 2, "G_2", "GGIT" ), 1e-5 ); BOOST_CHECK_CLOSE( 2 * 30.2, ecl_sum_get_group_var( resp, 2, "G_2", "GGIT" ), 1e-5 );
/* Injection totals (history) */ /* Injection totals (history) */
BOOST_CHECK_CLOSE( 0, ecl_sum_get_group_var( resp, 1, "G_2", "GWITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 30.0, ecl_sum_get_group_var( resp, 1, "G_2", "GWITH" ), 1e-5 );
BOOST_CHECK_CLOSE( 0, ecl_sum_get_group_var( resp, 1, "G_2", "GGITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 0, ecl_sum_get_group_var( resp, 1, "G_2", "GGITH" ), 1e-5 );
BOOST_CHECK_CLOSE( 30.0, ecl_sum_get_group_var( resp, 2, "G_2", "GWITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 60.0, ecl_sum_get_group_var( resp, 2, "G_2", "GWITH" ), 1e-5 );
BOOST_CHECK_CLOSE( 0, ecl_sum_get_group_var( resp, 2, "G_2", "GGITH" ), 1e-5 ); BOOST_CHECK_CLOSE( 0, ecl_sum_get_group_var( resp, 2, "G_2", "GGITH" ), 1e-5 );
/* gwct - water cut */ /* gwct - water cut */
@ -341,3 +341,20 @@ BOOST_AUTO_TEST_CASE(report_steps_time) {
BOOST_CHECK_EQUAL( ecl_sum_iget_sim_days( resp, 2 ), 10 ); BOOST_CHECK_EQUAL( ecl_sum_iget_sim_days( resp, 2 ), 10 );
BOOST_CHECK_EQUAL( ecl_sum_get_sim_length( resp ), 10 ); BOOST_CHECK_EQUAL( ecl_sum_get_sim_length( resp ), 10 );
} }
BOOST_AUTO_TEST_CASE(skip_unknown_var) {
setup cfg( "test_Summary_skip_unknown_var" );
out::Summary writer( cfg.es, cfg.config, cfg.name );
writer.add_timestep( 1, 2 * day, cfg.es, cfg.wells );
writer.add_timestep( 1, 5 * day, cfg.es, cfg.wells );
writer.add_timestep( 2, 10 * day, cfg.es, cfg.wells );
writer.write();
auto res = readsum( cfg.name );
const auto* resp = res.get();
/* verify that some non-supported keywords aren't written to the file */
BOOST_CHECK( !ecl_sum_has_well_var( resp, "W_1", "WPI" ) );
BOOST_CHECK( !ecl_sum_has_field_var( resp, "FVIR" ) );
}