def recalc_financial_objective(df, scenarios, obj_col):
f_cols = [col for col in df.columns if col.endswith('_financial_model')]
data = dict()
for idx, row in df.iterrows():
for i, scenario in enumerate(scenarios):
for j, col in enumerate(f_cols):
new_col = col.split('_')[0] + '_' + scenario['name']
if new_col not in data:
data[new_col] = []
d = expand_financial_model(row[col])
model = Singleowner.new() #.default(defaults[tech_prefix[j]])
model.assign(d)
for key, val in scenario['values'].items():
if key == 'cp_capacity_credit_percent':
model.value(key, calc_capacity_credit_perc(d, val))
else:
model.value(key, val)
model.execute()
data[new_col].append(model.value(obj_col))
for key, val in data.items():
df[key] = val
return df
def __init__(self,
site: SiteInfo,
trough_config: dict):
"""
Parabolic trough concentrating solar power class based on SSC’s Parabolic trough (physical model)
:param site: Power source site information
:param trough_config: CSP configuration with the following keys:
#. ``cycle_capacity_kw``: float, Power cycle design turbine gross output [kWe]
#. ``solar_multiple``: float, Solar multiple [-]
#. ``tes_hours``: float, Full load hours of thermal energy storage [hrs]
"""
financial_model = Singleowner.default('PhysicalTroughSingleOwner')
# set-up param file paths
# TODO: Site should have dispatch factors consistent across all models
self.param_files = {'tech_model_params_path': 'tech_model_defaults.json',
'cf_params_path': 'construction_financing_defaults.json',
'wlim_series_path': 'wlim_series.csv'}
rel_path_to_param_files = os.path.join('pySSC_daotk', 'trough_data')
self.param_file_paths(rel_path_to_param_files)
super().__init__("TroughPlant", 'trough_physical', site, financial_model, trough_config)
self._dispatch: TroughDispatch = None
def __init__(self, site: SiteInfo, interconnect_kw):
"""
Class that houses the hybrid system performance and financials. Enforces interconnection and curtailment
limits based on PySAM's Grid module
:param site: Power source site information (SiteInfo object)
:param interconnect_kw: Interconnection limit [kW]
"""
system_model = GridModel.default("GenericSystemSingleOwner")
financial_model: Singleowner.Singleowner = Singleowner.from_existing(system_model,
"GenericSystemSingleOwner")
super().__init__("Grid", site, system_model, financial_model)
self._system_model.GridLimits.enable_interconnection_limit = 1
self._system_model.GridLimits.grid_interconnection_limit_kwac = interconnect_kw
# financial calculations set up
self._financial_model.value("add_om_num_types", 1)
self._dispatch: GridDispatch = None
# TODO: figure out if this is the best place for these
self.missed_load = [0.]
self.missed_load_percentage = 0.0
self.schedule_curtailed = [0.]
self.schedule_curtailed_percentage = 0.0
def default():
"""Get the default PySAM object"""
pv = DefaultPvwattsv5.default()
obj = PySamSingleOwner.default('PVWattsSingleOwner')
obj.SystemOutput.gen = pv.Outputs.ac
obj.execute()
return obj
def test_ReOPT():
lat = 39.7555
lon = -105.2211
# get resource and create model
site = SiteInfo(flatirons_site)
load = [1000 * (sin(x) + pi) for x in range(0, 8760)]
urdb_label = "5ca4d1175457a39b23b3d45e" # https://openei.org/apps/IURDB/rate/view/5ca3d45ab718b30e03405898
solar_model = PVPlant(site, {'system_capacity_kw': 20000})
wind_model = WindPlant(site, {
'num_turbines': 10,
"turbine_rating_kw": 2000
})
wind_model._system_model.Resource.wind_resource_filename = os.path.join(
"data", "39.7555_-105.2211_windtoolkit_2012_60min_60m.srw")
fin_model = so.default("GenericSystemSingleOwner")
fileout = os.path.join(filepath, "REoptResultsNoExportAboveLoad.json")
reopt = REopt(lat=lat,
lon=lon,
load_profile=load,
urdb_label=urdb_label,
solar_model=solar_model,
wind_model=wind_model,
fin_model=fin_model,
interconnection_limit_kw=20000,
fileout=fileout)
reopt.set_rate_path(os.path.join(filepath, 'data'))
reopt_site = reopt.post['Scenario']['Site']
pv = reopt_site['PV']
assert (pv['dc_ac_ratio'] == pytest.approx(1.3, 0.01))
wind = reopt_site['Wind']
assert (wind['pbi_us_dollars_per_kwh'] == pytest.approx(0.015))
results = reopt.get_reopt_results()
assert (isinstance(results, dict))
print(results["outputs"]["Scenario"]["Site"]["Wind"]
['year_one_to_grid_series_kw'])
if 'error' in results['outputs']['Scenario']["status"]:
if 'error' in results["messages"].keys():
if 'Optimization exceeded timeout' in results["messages"]['error']:
assert True
else:
print(results["messages"]['error'])
elif 'warning' in results["messages"].keys():
print(results["messages"]['warnings'])
assert True
else:
assert (results["outputs"]["Scenario"]["Site"]["Wind"]["size_kw"] >= 0)
os.remove(fileout)
def __init__(self,
site: SiteInfo,
battery_config: dict,
chemistry: str = 'lfpgraphite',
system_voltage_volts: float = 500):
"""
Battery Storage class based on PySAM's BatteryStateful Model
:param site: Power source site information (SiteInfo object)
:param battery_config: Battery configuration with the following keys:
#. ``system_capacity_kwh``: float, Battery energy capacity [kWh]
#. ``system_capacity_kw``: float, Battery rated power capacity [kW]
:param chemistry: Battery storage chemistry, options include:
#. ``LFPGraphite``: Lithium Iron Phosphate (Lithium Ion)
#. ``LMOLTO``: LMO/Lithium Titanate (Lithium Ion)
#. ``LeadAcid``: Lead Acid
#. ``NMCGraphite``: Nickel Manganese Cobalt Oxide (Lithium Ion)
:param system_voltage_volts: Battery system voltage [VDC]
"""
for key in ('system_capacity_kwh', 'system_capacity_kw'):
if key not in battery_config.keys():
raise ValueError
system_model = BatteryModel.default(chemistry)
financial_model = Singleowner.from_existing(system_model, "StandaloneBatterySingleOwner")
super().__init__("Battery", site, system_model, financial_model)
self.Outputs = BatteryOutputs(n_timesteps=site.n_timesteps)
self.system_capacity_kw: float = battery_config['system_capacity_kw']
self.chemistry = chemistry
BatteryTools.battery_model_sizing(self._system_model,
battery_config['system_capacity_kw'],
battery_config['system_capacity_kwh'],
system_voltage_volts,
module_specs=Battery.module_specs)
self._system_model.ParamsPack.h = 20
self._system_model.ParamsPack.Cp = 900
self._system_model.ParamsCell.resistance = 0.001
self._system_model.ParamsCell.C_rate = battery_config['system_capacity_kw'] / battery_config['system_capacity_kwh']
# Minimum set of parameters to set to get statefulBattery to work
self._system_model.value("control_mode", 0.0)
self._system_model.value("input_current", 0.0)
self._system_model.value("dt_hr", 1.0)
self._system_model.value("minimum_SOC", 10.0)
self._system_model.value("maximum_SOC", 90.0)
self._system_model.value("initial_SOC", 10.0)
self._dispatch = None
logger.info("Initialized battery with parameters and state {}".format(self._system_model.export()))
def __init__(self,
site: SiteInfo,
pv_config: dict,
detailed_not_simple: bool = False):
"""
:param pv_config: dict, with keys ('system_capacity_kw', 'layout_params')
where 'layout_params' is of the SolarGridParameters type
:param detailed_not_simple:
Detailed model uses Pvsamv1, simple uses PVWatts
"""
if 'system_capacity_kw' not in pv_config.keys():
raise ValueError
self._detailed_not_simple: bool = detailed_not_simple
if not detailed_not_simple:
system_model = Pvwatts.default("PVWattsSingleOwner")
financial_model = Singleowner.from_existing(system_model, "PVWattsSingleOwner")
else:
system_model = Pvsam.default("FlatPlatePVSingleOwner")
financial_model = Singleowner.from_existing(system_model, "FlatPlatePVSingleOwner")
super().__init__("SolarPlant", site, system_model, financial_model)
self._system_model.SolarResource.solar_resource_data = self.site.solar_resource.data
self.dc_degradation = [0]
params: Optional[PVGridParameters] = None
if 'layout_params' in pv_config.keys():
params: PVGridParameters = pv_config['layout_params']
self._layout = PVLayout(site, system_model, params)
self._dispatch: PvDispatch = None
self.system_capacity_kw: float = pv_config['system_capacity_kw']
def __init__(self, site: SiteInfo, tower_config: dict):
"""
Tower concentrating solar power class based on SSC’s MSPT (molten salt power tower) model
:param site: Power source site information
:param tower_config: CSP configuration with the following keys:
#. ``cycle_capacity_kw``: float, Power cycle design turbine gross output [kWe]
#. ``solar_multiple``: float, Solar multiple [-]
#. ``tes_hours``: float, Full load hours of thermal energy storage [hrs]
#. ``optimize_field_before_sim``: (optional, default = True) bool, If True, SolarPilot's field and tower
height optimization will before system simulation, o.w., SolarPilot will just generate field based on
inputs.
#. ``scale_input_params``: (optional, default = True) bool, If True, HOPP will run
:py:func:`hybrid.tower_source.scale_params` before system simulation.
"""
financial_model = Singleowner.default('MSPTSingleOwner')
# set-up param file paths
self.param_files = {
'tech_model_params_path': 'tech_model_defaults.json',
'cf_params_path': 'construction_financing_defaults.json',
'wlim_series_path': 'wlim_series.csv',
'helio_positions_path': 'helio_positions.csv'
}
rel_path_to_param_files = os.path.join('pySSC_daotk', 'tower_data')
self.param_file_paths(rel_path_to_param_files)
super().__init__("TowerPlant", 'tcsmolten_salt', site, financial_model,
tower_config)
self.optimize_field_before_sim = True
if 'optimize_field_before_sim' in tower_config:
self.optimize_field_before_sim = tower_config[
'optimize_field_before_sim']
# (optionally) adjust ssc input parameters based on tower capacity
self.is_scale_params = False
if 'scale_input_params' in tower_config and tower_config[
'scale_input_params']:
self.is_scale_params = True
# Parameters to be scaled before receiver size optimization
self.scale_params(params_names=[
'helio_size', 'helio_parasitics', 'tank_heaters', 'tank_height'
])
self._dispatch: TowerDispatch = None
def recalc_financials(result, assumptions):
cols = [col for col in result.keys() if col.endswith('_financial_model')]
models = []
for col in cols:
model_dict = expand_financial_model(result[col])
model = Singleowner.new() #.default(defaults[tech_prefix[j]])
model.assign(model_dict)
for key, val in assumptions.items():
if key == 'cp_capacity_credit_percent':
val = calc_capacity_credit_percent(model_dict, N=val)
model.value(key, val)
model.execute()
models.append(model)
return models
def test_ReOPT():
lat = 39.7555
lon = -105.2211
# get resource and create model
site = SiteInfo(flatirons_site)
load = [1000*(sin(x) + pi)for x in range(0, 8760)]
urdb_label = "5ca4d1175457a39b23b3d45e" # https://openei.org/apps/IURDB/rate/view/5ca3d45ab718b30e03405898
solar_model = SolarPlant(site, 20000)
wind_model = WindPlant(site, 20000)
wind_model.system_model.Resource.wind_resource_filename = os.path.join(
"data", "39.7555_-105.2211_windtoolkit_2012_60min_60m.srw")
fin_model = so.default("GenericSystemSingleOwner")
reopt = REopt(lat=lat,
lon=lon,
load_profile=load,
urdb_label=urdb_label,
solar_model=solar_model,
wind_model=wind_model,
fin_model=fin_model,
interconnection_limit_kw=20000,
fileout=os.path.join(filepath, "data", "REoptResultsNoExportAboveLoad.json"))
reopt.set_rate_path(os.path.join(filepath, 'data'))
reopt_site = reopt.post['Scenario']['Site']
pv = reopt_site['PV']
assert(pv['dc_ac_ratio'] == pytest.approx(1.2, 0.01))
wind = reopt_site['Wind']
assert(wind['pbi_us_dollars_per_kwh'] == pytest.approx(0.022))
results = reopt.get_reopt_results(force_download=True)
assert(isinstance(results, dict))
print(results["outputs"]["Scenario"]["Site"]["Wind"]['year_one_to_grid_series_kw'])
assert (results["outputs"]["Scenario"]["Site"]["Wind"]["size_kw"] == pytest.approx(20000, 1))
assert(results["outputs"]["Scenario"]["Site"]["Financial"]["lcc_us_dollars"] == pytest.approx(17008573.0, 1))
assert(results["outputs"]["Scenario"]["Site"]["Financial"]["lcc_bau_us_dollars"] == pytest.approx(15511546.0, 1))
assert(results["outputs"]["Scenario"]["Site"]["ElectricTariff"]["year_one_export_benefit_us_dollars"] == pytest.approx(-15158711.0, 1))
def gcr_func(x, y):
# set up base
a = Pvsamv1.default("FlatPlatePVSingleowner")
a.SolarResource.solar_resource_file = "../sam/deploy/solar_resource/tucson_az_32.116521_-110.933042_psmv3_60_tmy.csv"
b = Singleowner.default("FlatPlatePVSingleowner")
# set up shading
a.Shading.subarray1_shade_mode = 1
a.Layout.subarray1_nmodx = 12
a.Layout.subarray1_nmody = 2
a.SystemDesign.subarray1_gcr = float(x)
land_area = a.CECPerformanceModelWithModuleDatabase.cec_area * (
a.SystemDesign.subarray1_nstrings *
a.SystemDesign.subarray1_modules_per_string) / x * 0.0002471
a.execute()
# total_installed_cost = total_direct_cost + permitting_total + engr_total + grid_total + landprep_total + sales_tax_total + land_total
b.SystemCosts.total_installed_cost += y * land_area * 1000
b.SystemOutput.gen = a.Outputs.gen
b.execute()
return b.Outputs.analysis_period_irr
Most recently tested against PySAM 2.2.3
@author: frohro
"""
import json
import PySAM.GenericSystem as GenericSystem
import PySAM.Grid as Grid
import PySAM.Singleowner as Singleowner
import PySAM.PySSC as pssc
ssc = pssc.PySSC()
with open("Examples/100mW_Generic.json") as f:
dic = json.load(f)
gs_dat = pssc.dict_to_ssc_table(dic, "generic_system")
grid_dat = pssc.dict_to_ssc_table(dic, "grid")
so_dat = pssc.dict_to_ssc_table(dic, "singleowner")
gs = GenericSystem.wrap(gs_dat)
grid = Grid.from_existing(gs)
grid.assign(Grid.wrap(grid_dat).export())
# to create GenericSystem and Singleowner combined simulation, sharing the same data
so = Singleowner.from_existing(gs)
so.assign(Singleowner.wrap(so_dat).export())
gs.execute()
grid.execute()
so.execute()
print('Made it past execute.')
print(gs.Outputs.export()) # as dictionary
import PySAM.ResourceTools as tools
import PySAM.Windpower as wp
import PySAM.Singleowner as so
# --- Initialize Wind Fetcher ---
wtkfetcher = tools.FetchResourceFiles(
tech='wind',
workers=1, #thread workers if fetching multiple files
nrel_api_key=<NREL_API_KEY>,
nrel_api_email=<NREL_API_EMAIL>)
# --- Pass a list of (lon, lat) tuples or Shapely points to fetch the nearest resource data ---
lon_lats = [(-105.1800775, 39.7383155)] # golden CO
wtkfetcher.fetch(lon_lats)
# --- Get resource data file path ---
wtk_path_dict = wtkfetcher.resource_file_paths_dict
wtk_fp = wtk_path_dict[lon_lats[0]]
# --- Initialize Generator ---
generator = wp.default('WindPowerSingleOwner')
generator.Resource.assign({'wind_resource_model_choice': 0})
generator.Resource.assign({'wind_resource_filename': wtk_fp}) #pass path to resource file
# --- Initialize Financial Model ---
financial = so.from_existing(generator, "WindPowerSingleOwner")
# --- Execute Models ---
generator.execute()
financial.execute()
def __init__(
self,
site: SiteInfo,
farm_config: dict,
rating_range_kw: tuple = (1000, 3000),
):
"""
Set up a WindPlant
:param farm_config: dict, with keys ('num_turbines', 'turbine_rating_kw', 'rotor_diameter', 'hub_height', 'layout_mode', 'layout_params')
where layout_mode can be selected from the following:
- 'boundarygrid': regular grid with boundary turbines, requires WindBoundaryGridParameters as 'params'
- 'grid': regular grid with dx, dy distance, 0 angle; does not require 'params'
:param rating_range_kw:
allowable kw range of turbines, default is 1000 - 3000 kW
"""
self._rating_range_kw = rating_range_kw
if 'model_name' in farm_config.keys():
if farm_config['model_name'] == 'floris':
print('FLORIS is the system model...')
system_model = Floris(farm_config,
site,
timestep=farm_config['timestep'])
financial_model = Singleowner.default("WindPowerSingleOwner")
else:
raise NotImplementedError
else:
system_model = Windpower.default("WindPowerSingleOwner")
financial_model = Singleowner.from_existing(
system_model, "WindPowerSingleOwner")
super().__init__("WindPlant", site, system_model, financial_model)
self._system_model.value("wind_resource_data",
self.site.wind_resource.data)
if 'layout_mode' not in farm_config.keys():
layout_mode = 'grid'
else:
layout_mode = farm_config['layout_mode']
params: Optional[WindBoundaryGridParameters] = None
if layout_mode == 'boundarygrid':
if 'layout_params' not in farm_config.keys():
raise ValueError(
"Parameters of WindBoundaryGridParameters required for boundarygrid layout mode"
)
else:
params: WindBoundaryGridParameters = farm_config[
'layout_params']
self._layout = WindLayout(site, system_model, layout_mode, params)
self._dispatch: WindDispatch = None
if 'turbine_rating_kw' not in farm_config.keys():
raise ValueError("Turbine rating required for WindPlant")
if 'num_turbines' not in farm_config.keys():
raise ValueError("Num Turbines required for WindPlant")
self.turb_rating = farm_config['turbine_rating_kw']
self.num_turbines = farm_config['num_turbines']
if 'hub_height' in farm_config.keys():
self._system_model.Turbine.wind_turbine_hub_ht = farm_config[
'hub_height']
if 'rotor_diameter' in farm_config.keys():
self.rotor_diameter = farm_config['rotor_diameter']
def run_reopt(site, scenario, load, interconnection_limit_kw, critical_load_factor, useful_life,
battery_can_grid_charge,
storage_used, run_reopt_flag):
# kw_continuous = forced_system_size # 5 MW continuous load - equivalent to 909kg H2 per hr at 55 kWh/kg electrical intensity
urdb_label = "5ca4d1175457a39b23b3d45e" # https://openei.org/apps/IURDB/rate/view/5ca3d45ab718b30e03405898
pv_config = {'system_capacity_kw': 20000}
solar_model = PVPlant(site, pv_config)
# ('num_turbines', 'turbine_rating_kw', 'rotor_diameter', 'hub_height', 'layout_mode', 'layout_params')
wind_config = {'num_turbines': np.floor(scenario['Wind Size MW'] / scenario['Turbine Rating']),
'rotor_dimeter': scenario['Rotor Diameter'], 'hub_height': scenario['Tower Height'],
'turbine_rating_kw': scenario['Turbine Rating']}
wind_model = WindPlant(site, wind_config)
fin_model = so.default("GenericSystemSingleOwner")
filepath = os.path.dirname(os.path.abspath(__file__))
fileout = 'reopt_result_test_intergration.json'
# site = SiteInfo(sample_site, hub_height=tower_height)
count = 1
reopt = REopt(lat=scenario['Lat'],
lon=scenario['Long'],
load_profile=load,
urdb_label=urdb_label,
solar_model=solar_model,
wind_model=wind_model,
fin_model=fin_model,
interconnection_limit_kw=interconnection_limit_kw,
off_grid=True,
fileout=fileout)
reopt.set_rate_path(os.path.join(filepath, '../data'))
reopt.post['Scenario']['Site']['Wind']['installed_cost_us_dollars_per_kw'] = scenario['Wind Cost KW'] # ATB
reopt.post['Scenario']['Site']['PV']['installed_cost_us_dollars_per_kw'] = scenario['Solar Cost KW']
reopt.post['Scenario']['Site']['Storage'] = {'min_kw': 0.0, 'max_kw': 0.99e9, 'min_kwh': 0.0,
'max_kwh': 0.99e9,
'internal_efficiency_pct': 0.975, 'inverter_efficiency_pct': 0.96,
'rectifier_efficiency_pct': 0.96, 'soc_min_pct': 0.2,
'soc_init_pct': 0.5,
'canGridCharge': battery_can_grid_charge,
'installed_cost_us_dollars_per_kw': scenario['Storage Cost KW'],
'installed_cost_us_dollars_per_kwh': scenario['Storage Cost KWh'],
'replace_cost_us_dollars_per_kw': scenario['Storage Cost KW'],
'replace_cost_us_dollars_per_kwh': scenario['Storage Cost KWh'],
'inverter_replacement_year': 10,
'battery_replacement_year': 10, 'macrs_option_years': 7,
'macrs_bonus_pct': 1.0, 'macrs_itc_reduction': 0.5,
'total_itc_pct': 0.0,
'total_rebate_us_dollars_per_kw': 0,
'total_rebate_us_dollars_per_kwh': 0}
reopt.post['Scenario']['Site']['Financial']['analysis_years'] = useful_life
if not storage_used:
reopt.post['Scenario']['Site']['Storage']['max_kw'] = 0
if scenario['PTC Available']:
reopt.post['Scenario']['Site']['Wind']['pbi_us_dollars_per_kwh'] = 0.022
else:
reopt.post['Scenario']['Site']['Wind']['pbi_us_dollars_per_kwh'] = 0.0
if scenario['ITC Available']:
reopt.post['Scenario']['Site']['PV']['federal_itc_pct'] = 0.26
else:
reopt.post['Scenario']['Site']['PV']['federal_itc_pct'] = 0.0
# reopt.post['Scenario']['Site']['LoadProfile']['doe_reference_name'] = "FlatLoad"
# reopt.post['Scenario']['Site']['LoadProfile']['annual_kwh'] = load #8760 * kw_continuous
reopt.post['Scenario']['Site']['LoadProfile']['loads_kw'] = load
reopt.post['Scenario']['Site']['LoadProfile']['critical_load_pct'] = critical_load_factor
off_grid = False
reopt.post['Scenario']['optimality_tolerance_techs'] = 0.05
if off_grid == True:
# reopt.post['Scenario']['Site'].pop('Wind')
# reopt.post['Scenario']['Site']['Wind']['min_kw'] = 10000
dictforstuff = {"off_grid_flag": True}
reopt.post['Scenario'].update(dictforstuff)
reopt.post['Scenario']['optimality_tolerance_techs'] = 0.05
reopt.post['Scenario']["timeout_seconds"] = 3600
# reopt.post['Scenario']['Site']['LoadProfile'].pop('annual kwh')
reopt.post['Scenario']['Site'].pop('ElectricTariff')
reopt.post['Scenario']['Site']['LoadProfile']['critical_load_pct'] = 1.0
f = open('massproducer_offgrid (1).json')
data_for_post = json.load(f)
reopt.post['Scenario']['Site']['Financial'] = data_for_post['Scenario']['Site']['Financial']
else:
reopt.post['Scenario']['Site']['ElectricTariff']['wholesale_rate_us_dollars_per_kwh'] = 0.01
reopt.post['Scenario']['Site']['ElectricTariff']['wholesale_rate_above_site_load_us_dollars_per_kwh'] = 0.01
reopt.post['Scenario']['Site']['LoadProfile']['outage_start_hour'] = 10
reopt.post['Scenario']['Site']['LoadProfile']['outage_end_hour'] = 11
from pathlib import Path
post_path = 'results/reopt_precomputes/reopt_post'
post_path_abs = Path(__file__).parent / post_path
if not os.path.exists(post_path_abs.parent):
os.mkdir(post_path_abs.parent)
with open(post_path_abs, 'w') as outfile:
json.dump(reopt.post, outfile)
# mass_producer_dict = {
# "mass_units": "kg",
# "time_units": "hr",
# "min_mass_per_time": 10.0,
# "max_mass_per_time": 10.0,
# "electric_consumed_to_mass_produced_ratio_kwh_per_mass": 71.7,
# "thermal_consumed_to_mass_produced_ratio_kwh_per_mass": 0.0,
# "feedstock_consumed_to_mass_produced_ratio": 0.0,
# "installed_cost_us_dollars_per_mass_per_time": 10.0,
# "om_cost_us_dollars_per_mass_per_time": 1.5,
# "om_cost_us_dollars_per_mass": 0.0,
# "mass_value_us_dollars_per_mass": 5.0,
# "feedstock_cost_us_dollars_per_mass": 0.0,
# "macrs_option_years": 0,
# "macrs_bonus_pct": 0
# }
# reopt.post['Scenario']['Site']['MassProducer'] = mass_producer_dict
if run_reopt_flag:
#NEW METHOD
load_dotenv()
result = reopt.get_reopt_results()
#BASIC INITIAL TEST FOR NEW METHOD
# result = post_and_poll.get_api_results(data_for_post, NREL_API_KEY, 'https://offgrid-electrolyzer-reopt-dev-api.its.nrel.gov/v1',
# 'reopt_result_test_intergration.json')
# f = open('massproducer_offgrid (1).json')
# data_for_post = json.load(f)
#OLD METHOD
# result = reopt.get_reopt_results(force_download=True)
pickle.dump(result, open("results/reopt_precomputes/results_{}_{}_{}.p".format(
scenario['Site Name'], scenario['Scenario Name'], critical_load_factor), "wb"))
else:
print("Not running reopt. Loading Dummy data")
precompute_path = 'results/reopt_precomputes/'
precompute_path_abs = Path(__file__).parent / precompute_path
result = pickle.load(
open(os.path.join(precompute_path_abs, "results_ATB_moderate_2020_IOWA_0.9.p"), "rb"))
if result['outputs']['Scenario']['Site']['PV']['size_kw']:
solar_size_mw = result['outputs']['Scenario']['Site']['PV']['size_kw'] / 1000
if result['outputs']['Scenario']['Site']['Wind']['size_kw']:
wind_size_mw = result['outputs']['Scenario']['Site']['Wind']['size_kw'] / 1000
if result['outputs']['Scenario']['Site']['Storage']['size_kw']:
storage_size_mw = result['outputs']['Scenario']['Site']['Storage']['size_kw'] / 1000
storage_size_mwh = result['outputs']['Scenario']['Site']['Storage']['size_kwh'] / 1000
storage_hours = storage_size_mwh / storage_size_mw
reopt_site_result = result['outputs']['Scenario']['Site']
generated_date = pd.date_range(start='1/1/2018 00:00:00', end='12/31/2018 23:00:00', periods=8760)
if reopt_site_result['Wind']['size_kw'] == 0:
reopt_site_result['Wind']['year_one_power_production_series_kw'] = np.zeros(8760)
reopt_site_result['Wind']['year_one_to_grid_series_kw'] = np.zeros(8760)
reopt_site_result['Wind']['year_one_to_load_series_kw'] = np.zeros(8760)
reopt_site_result['Wind']['year_one_to_battery_series_kw'] = np.zeros(8760)
reopt_site_result['Wind']['year_one_curtailed_production_series_kw'] = np.zeros(8760)
wind_size_mw = 0
if reopt_site_result['PV']['size_kw'] == 0:
reopt_site_result['PV']['year_one_power_production_series_kw'] = np.zeros(8760)
reopt_site_result['PV']['year_one_to_grid_series_kw'] = np.zeros(8760)
reopt_site_result['PV']['year_one_to_load_series_kw'] = np.zeros(8760)
reopt_site_result['PV']['year_one_to_battery_series_kw'] = np.zeros(8760)
reopt_site_result['PV']['year_one_curtailed_production_series_kw'] = np.zeros(8760)
solar_size_mw = 0
if reopt_site_result['Storage']['size_kw'] == 0:
reopt_site_result['Storage']['year_one_soc_series_pct'] = np.zeros(8760)
reopt_site_result['Storage']['year_one_to_massproducer_series_kw'] = np.zeros(8760)
storage_size_mw = 0
storage_size_mwh = 0
storage_hours = 0
combined_pv_wind_power_production = [x + y for x, y in
zip(reopt_site_result['PV']['year_one_power_production_series_kw']
, reopt_site_result['Wind']['year_one_power_production_series_kw'])]
combined_pv_wind_storage_power_production = [x + y for x, y in zip(combined_pv_wind_power_production,
reopt_site_result['Storage'][
'year_one_to_load_series_kw'])]
energy_shortfall = [y - x for x, y in zip(combined_pv_wind_storage_power_production, load)]
energy_shortfall = [x if x > 0 else 0 for x in energy_shortfall]
combined_pv_wind_curtailment = [x + y for x, y in
zip(reopt_site_result['PV']['year_one_curtailed_production_series_kw']
, reopt_site_result['Wind']['year_one_curtailed_production_series_kw'])]
reopt_result_dict = {'Date':
generated_date,
'pv_power_production':
reopt_site_result['PV']
['year_one_power_production_series_kw'],
'pv_power_to_grid':
reopt_site_result['PV']
['year_one_to_grid_series_kw'],
'pv_power_to_load':
reopt_site_result['PV']['year_one_to_load_series_kw'],
'pv_power_to_battery':
reopt_site_result['PV']['year_one_to_battery_series_kw'],
'pv_power_curtailed':
reopt_site_result['PV']['year_one_curtailed_production_series_kw'],
'wind_power_production':
reopt_site_result['Wind']
['year_one_power_production_series_kw'],
'wind_power_to_grid':
reopt_site_result['Wind']
['year_one_to_grid_series_kw'],
'wind_power_to_load':
reopt_site_result['Wind']['year_one_to_load_series_kw'],
'wind_power_to_battery':
reopt_site_result['Wind']['year_one_to_battery_series_kw'],
'wind_power_curtailed':
reopt_site_result['Wind']['year_one_curtailed_production_series_kw'],
'combined_pv_wind_power_production':
combined_pv_wind_power_production,
'combined_pv_wind_storage_power_production':
combined_pv_wind_storage_power_production,
'storage_power_to_load':
reopt_site_result['Storage']['year_one_to_load_series_kw'],
'storage_power_to_grid':
reopt_site_result['Storage']['year_one_to_grid_series_kw'],
'battery_soc_pct':
reopt_site_result['Storage']['year_one_soc_series_pct'],
'energy_shortfall':
energy_shortfall,
'combined_pv_wind_curtailment':
combined_pv_wind_curtailment
}
REoptResultsDF = pd.DataFrame(reopt_result_dict)
return wind_size_mw, solar_size_mw, storage_size_mw, storage_size_mwh, storage_hours, result, REoptResultsDF
# --- List of (lon, lat) tuples or Shapely points ---
lon_lats = [(lon, lat)]
wtkfetcher.fetch(lon_lats)
# --- Get resource data file path ---
wtk_path_dict = wtkfetcher.resource_file_paths_dict
wtk_fp = wtk_path_dict[lon_lats[0]]
# --- Initialize generator ---
if wtk_fp is not None:
generator = wp.default('WindPowerSingleOwner')
generator.Resource.assign({'wind_resource_model_choice': 0})
generator.Resource.assign({'wind_resource_filename': wtk_fp})
# --- Initialize financial model ---
financial = so.from_existing(generator, 'WindPowerSingleOwner')
print('Wind Power - Single Owner Results')
generator.execute()
print('capacity factor = {:.3f}'.format(generator.Outputs.capacity_factor))
financial.execute()
print('npv = ${:,.2f}'.format(
financial.Outputs.project_return_aftertax_npv))
else:
print('Wind resource file does not exist. Skipping wind model simulation.')
# --- Solar Example ---
# --- Initialize Solar Resource Fetcher with minimum parameters ---
# See function documentation for full parameter list