opm-simulators/python/test/test_schedule.py
Håkon Hægland 55aab60549 Get primary variables and fluid state from Python
Added methods to Python module opm.simulators.BlackOilSimulator to
access primary variables and fluid state variables.
2024-03-01 14:22:35 +01:00

145 lines
6.3 KiB
Python
Executable File

import os
import unittest
import datetime as dt
from pathlib import Path
import re
from opm.simulators import BlackOilSimulator
from opm.io.parser import Parser
from opm.io.ecl_state import EclipseState
from opm.io.schedule import Schedule
from opm.io.summary import SummaryConfig
from .pytest_common import pushd
class TestBasic(unittest.TestCase):
@classmethod
def setUpClass(cls):
# NOTE: See comment in test_basic.py for the reason why we are
# only using a single test_all() function instead of splitting
# it up in multiple test functions
test_dir = Path(os.path.dirname(__file__))
cls.data_dir = test_dir.parent.joinpath("test_data/SPE1CASE1b")
def test_all(self):
with pushd(self.data_dir):
self.deck = Parser().parse('SPE1CASE1.DATA')
state = EclipseState(self.deck)
self.schedule = Schedule( self.deck, state )
summary_config = SummaryConfig(self.deck, state, self.schedule)
self.unit_system = self.deck.active_unit_system()
self.assertTrue('PROD' in self.schedule)
self.assertTrue('INJ' in self.schedule)
self.assertEqual(dt.datetime(2015, 1, 1), self.schedule.start)
self.assertEqual(dt.datetime(2016, 1, 1), self.schedule.end)
self.sim = BlackOilSimulator(
self.deck, state, self.schedule, summary_config )
tsteps = self.schedule.timesteps
self.assertEqual(dt.datetime(2015, 1, 1), tsteps[0])
last_step = len(tsteps) - 1
self.assertEqual(dt.datetime(2016, 1, 1), tsteps[last_step])
self.sim.step_init()
report_step = 4
self.sim.advance(report_step=report_step)
well_name = "PROD"
prod = self.schedule.get_well(well_name, 2)
self.assertEqual(prod.status(), "OPEN")
#schedule.shut_well("PROD", 3)
#prod = schedule.get_well("PROD", 3)
#self.assertEqual(prod.status(), "SHUT")
self.subtest_modify_prod_weltarg_dynamically(well_name, report_step)
self.sim.step()
report_step = self.sim.current_step()
well_name = "INJ"
self.subtest_modify_inj_weltarg_dynamically(well_name, report_step)
self.sim.advance(report_step=last_step)
self.sim.step_cleanup()
def subtest_modify_inj_weltarg_dynamically(self, well_name, report_step):
prop = self.schedule.get_injection_properties(well_name, report_step)
self.assertEqual(prop['surf_inj_rate'], 100000.0) # Mscf/day
self.assertEqual(prop['resv_inj_rate'], 0.0) # rb/day
self.assertEqual(prop['bhp_target'], 9014.0) # psi
self.assertEqual(prop['thp_target'], 0.0)
new_grat_target = prop['surf_inj_rate'] - 100 # stb/day
self.update_inj_grat_target_wconinje(well_name, new_grat_target)
self.sim.step()
prop2 = self.schedule.get_injection_properties(well_name, report_step+1)
self.assertEqual(prop2['surf_inj_rate'], new_grat_target)
new_grat_target += 200
self.update_inj_grat_target_weltarg(well_name, new_grat_target)
self.sim.step()
prop3 = self.schedule.get_injection_properties(well_name, report_step+2)
self.assertEqual(prop3['surf_inj_rate'], new_grat_target)
def subtest_modify_prod_weltarg_dynamically(self, well_name, report_step):
prop = self.schedule.get_production_properties(well_name, report_step)
self.assertEqual(prop['alq_value'], 0.0)
self.assertEqual(prop['bhp_target'], 1000.0)
self.assertEqual(prop['gas_rate'], 0.0)
self.assertEqual(prop['liquid_rate'], 0.0)
self.assertEqual(prop['oil_rate'], 20000.0)
self.assertEqual(prop['resv_rate'], 0.0)
self.assertEqual(prop['thp_target'], 0.0)
self.assertEqual(prop['water_rate'], 0.0)
new_oil_target = prop['oil_rate'] + 10000 # stb/day
self.update_prod_orat_target_wconprod(well_name, new_oil_target)
self.sim.step()
prop2 = self.schedule.get_production_properties(well_name, report_step+1)
self.assertEqual(prop2['oil_rate'], new_oil_target)
new_oil_target += 1000
self.update_prod_orat_target_weltarg(well_name, new_oil_target)
self.sim.step()
prop3 = self.schedule.get_production_properties(well_name, report_step+2)
self.assertEqual(prop3['oil_rate'], new_oil_target)
# This is an alternative to using WELTARG
def update_inj_grat_target_wconinje(self, well_name, new_surf_flow_rate):
data = self.deck["WCONINJE"]
# assumes data looks like this:
# WCONINJE
# 'INJ' 'GAS' 'OPEN' 'RATE' 100000 1* 9014 /
# /
# The initial rate can also be obtained from data[0][4].get_uda(0).get_double()
data = re.sub(pattern='100000', repl=str(new_surf_flow_rate), string=str(data), count=1)
report_step = self.sim.current_step()
self.schedule.insert_keywords(
data, step=report_step, unit_system=self.unit_system)
# This is an alternative to using WCONINJE to modify injection properties
def update_inj_grat_target_weltarg(self, well_name, net_surf_flow_rate):
data = """
WELTARG
'{}' GRAT {} /
/
""".format(well_name, net_surf_flow_rate)
report_step = self.sim.current_step()
self.schedule.insert_keywords(
data, step=report_step, unit_system=self.unit_system)
# This is an alternative to using WCONPROD to modify production properties
def update_prod_orat_target_weltarg(self, well_name, oil_target):
data = """
WELTARG
'{}' ORAT {} /
/
""".format(well_name, oil_target)
report_step = self.sim.current_step()
self.schedule.insert_keywords(
data, step=report_step, unit_system=self.unit_system)
# This is an alternative to using WELTARG to modify production properties
def update_prod_orat_target_wconprod(self, well_name, oil_target):
well_status = "OPEN"
control_mode = "ORAT"
bhp_limit = 1000 # psia
data = """
WCONPROD
'{}' '{}' '{}' {} 4* {} /
/
""".format(well_name, well_status, control_mode, oil_target, bhp_limit)
report_step = self.sim.current_step()
self.schedule.insert_keywords(
data, step=report_step, unit_system=self.unit_system)