def setUp(self):
self.aep = aep_csm_assembly()
self.aep.machine_rating = 5000.0 # Float(units = 'kW', iotype='in', desc= 'rated machine power in kW')
self.aep.rotor_diameter = 126.0 # Float(units = 'm', iotype='in', desc= 'rotor diameter of the machine')
self.aep.max_tip_speed = 80.0 # Float(units = 'm/s', iotype='in', desc= 'maximum allowable tip speed for the rotor')
self.aep.drivetrain_design = 'geared' # Enum('geared', ('geared', 'single_stage', 'multi_drive', 'pm_direct_drive'), iotype='in')
self.aep.altitude = 0.0 # Float(0.0, units = 'm', iotype='in', desc= 'altitude of wind plant')
self.aep.turbine_number = 100 # Int(100, iotype='in', desc = 'total number of wind turbines at the plant')
self.aep.hub_height = 90.0 # Float(units = 'm', iotype='in', desc='hub height of wind turbine above ground / sea level')s
self.aep.max_power_coefficient = 0.488 #Float(0.488, iotype='in', desc= 'maximum power coefficient of rotor for operation in region 2')
self.aep.opt_tsr = 7.525 #Float(7.525, iotype='in', desc= 'optimum tip speed ratio for operation in region 2')
self.aep.cut_in_wind_speed = 3.0 #Float(3.0, units = 'm/s', iotype='in', desc= 'cut in wind speed for the wind turbine')
self.aep.cut_out_wind_speed = 25.0 #Float(25.0, units = 'm/s', iotype='in', desc= 'cut out wind speed for the wind turbine')
self.aep.hub_height = 90.0 #Float(90.0, units = 'm', iotype='in', desc= 'hub height of wind turbine above ground / sea level')
self.aep.altitude = 0.0 #Float(0.0, units = 'm', iotype='in', desc= 'altitude of wind plant')
#self.aep.air_density = Float(0.0, units = 'kg / (m * m * m)', iotype='in', desc= 'air density at wind plant site') # default air density value is 0.0 - forces aero csm to calculate air density in model
self.aep.drivetrain_design = 'geared' #Enum('geared', ('geared', 'single_stage', 'multi_drive', 'pm_direct_drive'), iotype='in')
self.aep.shear_exponent = 0.1 #Float(0.1, iotype='in', desc= 'shear exponent for wind plant') #TODO - could use wind model here
self.aep.wind_speed_50m = 8.02 #Float(8.35, units = 'm/s', iotype='in', desc='mean annual wind speed at 50 m height')
self.aep.weibull_k= 2.15 #Float(2.1, iotype='in', desc = 'weibull shape factor for annual wind speed distribution')
self.aep.soiling_losses = 0.0 #Float(0.0, iotype='in', desc = 'energy losses due to blade soiling for the wind plant - average across turbines')
self.aep.array_losses = 0.10 #Float(0.06, iotype='in', desc = 'energy losses due to turbine interactions - across entire plant')
self.aep.availability = 0.941 #Float(0.94287630736, iotype='in', desc = 'average annual availbility of wind turbines at plant')
self.aep.turbine_number = 100 #Int(100, iotype='in', desc = 'total number of wind turbines at the plant')
self.aep.thrust_coefficient = 0.50 #Float(0.50, iotype='in', desc='thrust coefficient at rated power')
def setUp(self):
self.aep = aep_csm_assembly()
self.aep.machine_rating = 5000.0 # Float(units = 'kW', iotype='in', desc= 'rated machine power in kW')
self.aep.rotor_diameter = 126.0 # Float(units = 'm', iotype='in', desc= 'rotor diameter of the machine')
self.aep.max_tip_speed = 80.0 # Float(units = 'm/s', iotype='in', desc= 'maximum allowable tip speed for the rotor')
self.aep.drivetrain_design = 'geared' # Enum('geared', ('geared', 'single_stage', 'multi_drive', 'pm_direct_drive'), iotype='in')
self.aep.altitude = 0.0 # Float(0.0, units = 'm', iotype='in', desc= 'altitude of wind plant')
self.aep.turbine_number = 100 # Int(100, iotype='in', desc = 'total number of wind turbines at the plant')
self.aep.hub_height = 90.0 # Float(units = 'm', iotype='in', desc='hub height of wind turbine above ground / sea level')s
self.aep.max_power_coefficient = 0.488 #Float(0.488, iotype='in', desc= 'maximum power coefficient of rotor for operation in region 2')
self.aep.opt_tsr = 7.525 #Float(7.525, iotype='in', desc= 'optimum tip speed ratio for operation in region 2')
self.aep.cut_in_wind_speed = 3.0 #Float(3.0, units = 'm/s', iotype='in', desc= 'cut in wind speed for the wind turbine')
self.aep.cut_out_wind_speed = 25.0 #Float(25.0, units = 'm/s', iotype='in', desc= 'cut out wind speed for the wind turbine')
self.aep.hub_height = 90.0 #Float(90.0, units = 'm', iotype='in', desc= 'hub height of wind turbine above ground / sea level')
self.aep.altitude = 0.0 #Float(0.0, units = 'm', iotype='in', desc= 'altitude of wind plant')
#self.aep.air_density = Float(0.0, units = 'kg / (m * m * m)', iotype='in', desc= 'air density at wind plant site') # default air density value is 0.0 - forces aero csm to calculate air density in model
self.aep.drivetrain_design = 'geared' #Enum('geared', ('geared', 'single_stage', 'multi_drive', 'pm_direct_drive'), iotype='in')
self.aep.shear_exponent = 0.1 #Float(0.1, iotype='in', desc= 'shear exponent for wind plant') #TODO - could use wind model here
self.aep.wind_speed_50m = 8.02 #Float(8.35, units = 'm/s', iotype='in', desc='mean annual wind speed at 50 m height')
self.aep.weibull_k = 2.15 #Float(2.1, iotype='in', desc = 'weibull shape factor for annual wind speed distribution')
self.aep.soiling_losses = 0.0 #Float(0.0, iotype='in', desc = 'energy losses due to blade soiling for the wind plant - average across turbines')
self.aep.array_losses = 0.10 #Float(0.06, iotype='in', desc = 'energy losses due to turbine interactions - across entire plant')
self.aep.availability = 0.941 #Float(0.94287630736, iotype='in', desc = 'average annual availbility of wind turbines at plant')
self.aep.turbine_number = 100 #Int(100, iotype='in', desc = 'total number of wind turbines at the plant')
self.aep.thrust_coefficient = 0.50 #Float(0.50, iotype='in', desc='thrust coefficient at rated power')
def configure(self):
configure_extended_financial_analysis(self)
self.replace('tcc_a', tcc_csm_assembly())
self.replace('bos_a', bos_csm_assembly())
self.replace('opex_a', opex_csm_assembly())
self.replace('aep_a', aep_csm_assembly())
self.replace('fin_a', fin_csm_assembly())
# connect i/o to component and assembly inputs
# turbine configuration
# rotor
self.connect('rotor_diameter', ['aep_a.rotor_diameter', 'tcc_a.rotor_diameter', 'bos_a.rotor_diameter'])
self.connect('max_tip_speed', ['aep_a.max_tip_speed'])
self.connect('opt_tsr','aep_a.opt_tsr')
self.connect('cut_in_wind_speed','aep_a.cut_in_wind_speed')
self.connect('cut_out_wind_speed','aep_a.cut_out_wind_speed')
self.connect('altitude','aep_a.altitude')
self.connect('shear_exponent','aep_a.shear_exponent')
self.connect('wind_speed_50m','aep_a.wind_speed_50m')
self.connect('weibull_k','aep_a.weibull_k')
self.connect('soiling_losses','aep_a.soiling_losses')
self.connect('array_losses','aep_a.array_losses')
self.connect('availability','aep_a.availability')
self.connect('thrust_coefficient','aep_a.thrust_coefficient')
self.connect('blade_number','tcc_a.blade_number')
self.connect('advanced_blade','tcc_a.advanced_blade')
# drivetrain
self.connect('machine_rating', ['aep_a.machine_rating', 'tcc_a.machine_rating', 'bos_a.machine_rating', 'opex_a.machine_rating'])
self.connect('drivetrain_design', ['aep_a.drivetrain_design', 'tcc_a.drivetrain_design'])
self.connect('crane','tcc_a.crane')
self.connect('advanced_bedplate','tcc_a.advanced_bedplate')
# tower
self.connect('hub_height', ['aep_a.hub_height', 'tcc_a.hub_height', 'bos_a.hub_height'])
self.connect('advanced_tower','tcc_a.advanced_tower')
# plant configuration
# climate
self.connect('sea_depth', ['bos_a.sea_depth', 'opex_a.sea_depth', 'fin_a.sea_depth'])
self.connect('offshore','tcc_a.offshore')
# plant operation
self.connect('turbine_number', ['aep_a.turbine_number', 'bos_a.turbine_number', 'opex_a.turbine_number'])
# financial
self.connect('year', ['tcc_a.year', 'bos_a.year', 'opex_a.year'])
self.connect('month', ['tcc_a.month', 'bos_a.month', 'opex_a.month'])
self.connect('fixed_charge_rate','fin_a.fixed_charge_rate')
self.connect('construction_finance_rate','fin_a.construction_finance_rate')
self.connect('tax_rate','fin_a.tax_rate')
self.connect('discount_rate','fin_a.discount_rate')
self.connect('construction_time','fin_a.construction_time')
self.connect('project_lifetime','fin_a.project_lifetime')
# connections
self.connect('aep_a.rotor_thrust','tcc_a.rotor_thrust')
self.connect('aep_a.rotor_torque','tcc_a.rotor_torque')
self.connect('aep_a.net_aep', ['opex_a.net_aep'])
self.connect('tcc_a.turbine_cost','bos_a.turbine_cost')
# create passthroughs for key output variables of interest
# aep_a
self.connect('aep_a.rated_rotor_speed','rated_rotor_speed')
self.connect('aep_a.rated_wind_speed','rated_wind_speed')
self.connect('aep_a.rotor_thrust','rotor_thrust')
self.connect('aep_a.rotor_torque','rotor_torque')
self.connect('aep_a.power_curve','power_curve')
self.connect('aep_a.max_efficiency','max_efficiency')
self.connect('aep_a.gross_aep','gross_aep')
# tcc_a
self.connect('tcc_a.turbine_mass','turbine_mass')
# fin_a
self.connect('fin_a.lcoe','lcoe')
# 5 ----------
# A simple test of nrel_csm_aep model
from plant_energyse.nrel_csm_aep.nrel_csm_aep import aep_csm_assembly
aep = aep_csm_assembly()
# 5 ----------
# 6 ----------
# Set input parameters
aep.machine_rating = 5000.0 # Float(units = 'kW', iotype='in', desc= 'rated machine power in kW')
aep.rotor_diameter = 126.0 # Float(units = 'm', iotype='in', desc= 'rotor diameter of the machine')
aep.max_tip_speed = 80.0 # Float(units = 'm/s', iotype='in', desc= 'maximum allowable tip speed for the rotor')
aep.drivetrain_design = 'geared' # Enum('geared', ('geared', 'single_stage', 'multi_drive', 'pm_direct_drive'), iotype='in')
aep.altitude = 0.0 # Float(0.0, units = 'm', iotype='in', desc= 'altitude of wind plant')
aep.turbine_number = 100 # Int(100, iotype='in', desc = 'total number of wind turbines at the plant')
aep.hub_height = 90.0 # Float(units = 'm', iotype='in', desc='hub height of wind turbine above ground / sea level')s
aep.max_power_coefficient = 0.488 #Float(0.488, iotype='in', desc= 'maximum power coefficient of rotor for operation in region 2')
aep.opt_tsr = 7.525 #Float(7.525, iotype='in', desc= 'optimum tip speed ratio for operation in region 2')
aep.cut_in_wind_speed = 3.0 #Float(3.0, units = 'm/s', iotype='in', desc= 'cut in wind speed for the wind turbine')
aep.cut_out_wind_speed = 25.0 #Float(25.0, units = 'm/s', iotype='in', desc= 'cut out wind speed for the wind turbine')
aep.hub_height = 90.0 #Float(90.0, units = 'm', iotype='in', desc= 'hub height of wind turbine above ground / sea level')
#aep.air_density = Float(0.0, units = 'kg / (m * m * m)', iotype='in', desc= 'air density at wind plant site') # default air density value is 0.0 - forces aero csm to calculate air density in model
aep.shear_exponent = 0.1 #Float(0.1, iotype='in', desc= 'shear exponent for wind plant') #TODO - could use wind model here
aep.wind_speed_50m = 8.02 #Float(8.35, units = 'm/s', iotype='in', desc='mean annual wind speed at 50 m height')
aep.weibull_k= 2.15 #Float(2.1, iotype='in', desc = 'weibull shape factor for annual wind speed distribution')
aep.soiling_losses = 0.0 #Float(0.0, iotype='in', desc = 'energy losses due to blade soiling for the wind plant - average across turbines')
aep.array_losses = 0.10 #Float(0.06, iotype='in', desc = 'energy losses due to turbine interactions - across entire plant')
aep.availability = 0.941 #Float(0.94287630736, iotype='in', desc = 'average annual availbility of wind turbines at plant')
aep.thrust_coefficient = 0.50 #Float(0.50, iotype='in', desc='thrust coefficient at rated power')
# 5 ----------
# A simple test of nrel_csm_aep model
from plant_energyse.nrel_csm_aep.nrel_csm_aep import aep_csm_assembly
aep = aep_csm_assembly()
# 5 ----------
# 6 ----------
# Set input parameters
aep.machine_rating = 5000.0 # Float(units = 'kW', iotype='in', desc= 'rated machine power in kW')
aep.rotor_diameter = 126.0 # Float(units = 'm', iotype='in', desc= 'rotor diameter of the machine')
aep.max_tip_speed = 80.0 # Float(units = 'm/s', iotype='in', desc= 'maximum allowable tip speed for the rotor')
aep.drivetrain_design = 'geared' # Enum('geared', ('geared', 'single_stage', 'multi_drive', 'pm_direct_drive'), iotype='in')
aep.altitude = 0.0 # Float(0.0, units = 'm', iotype='in', desc= 'altitude of wind plant')
aep.turbine_number = 100 # Int(100, iotype='in', desc = 'total number of wind turbines at the plant')
aep.hub_height = 90.0 # Float(units = 'm', iotype='in', desc='hub height of wind turbine above ground / sea level')s
aep.max_power_coefficient = 0.488 #Float(0.488, iotype='in', desc= 'maximum power coefficient of rotor for operation in region 2')
aep.opt_tsr = 7.525 #Float(7.525, iotype='in', desc= 'optimum tip speed ratio for operation in region 2')
aep.cut_in_wind_speed = 3.0 #Float(3.0, units = 'm/s', iotype='in', desc= 'cut in wind speed for the wind turbine')
aep.cut_out_wind_speed = 25.0 #Float(25.0, units = 'm/s', iotype='in', desc= 'cut out wind speed for the wind turbine')
aep.hub_height = 90.0 #Float(90.0, units = 'm', iotype='in', desc= 'hub height of wind turbine above ground / sea level')
#aep.air_density = Float(0.0, units = 'kg / (m * m * m)', iotype='in', desc= 'air density at wind plant site') # default air density value is 0.0 - forces aero csm to calculate air density in model
aep.shear_exponent = 0.1 #Float(0.1, iotype='in', desc= 'shear exponent for wind plant') #TODO - could use wind model here
aep.wind_speed_50m = 8.02 #Float(8.35, units = 'm/s', iotype='in', desc='mean annual wind speed at 50 m height')
aep.weibull_k = 2.15 #Float(2.1, iotype='in', desc = 'weibull shape factor for annual wind speed distribution')
aep.soiling_losses = 0.0 #Float(0.0, iotype='in', desc = 'energy losses due to blade soiling for the wind plant - average across turbines')
aep.array_losses = 0.10 #Float(0.06, iotype='in', desc = 'energy losses due to turbine interactions - across entire plant')
aep.availability = 0.941 #Float(0.94287630736, iotype='in', desc = 'average annual availbility of wind turbines at plant')
aep.thrust_coefficient = 0.50 #Float(0.50, iotype='in', desc='thrust coefficient at rated power')
def configure(self):
configure_extended_financial_analysis(self)
self.replace('tcc_a', tcc_csm_assembly())
self.replace('bos_a', bos_csm_assembly())
self.replace('opex_a', opex_csm_assembly())
self.replace('aep_a', aep_csm_assembly())
self.replace('fin_a', fin_csm_assembly())
# connect i/o to component and assembly inputs
# turbine configuration
# rotor
self.connect('rotor_diameter', ['aep_a.rotor_diameter', 'tcc_a.rotor_diameter', 'bos_a.rotor_diameter'])
self.connect('max_tip_speed', ['aep_a.max_tip_speed'])
self.connect('max_power_coefficient', 'aep_a.max_power_coefficient')
self.connect('opt_tsr','aep_a.opt_tsr')
self.connect('cut_in_wind_speed','aep_a.cut_in_wind_speed')
self.connect('cut_out_wind_speed','aep_a.cut_out_wind_speed')
self.connect('altitude','aep_a.altitude')
self.connect('shear_exponent','aep_a.shear_exponent')
self.connect('wind_speed_50m','aep_a.wind_speed_50m')
self.connect('weibull_k','aep_a.weibull_k')
self.connect('soiling_losses','aep_a.soiling_losses')
self.connect('array_losses','aep_a.array_losses')
self.connect('availability','aep_a.availability')
self.connect('thrust_coefficient','aep_a.thrust_coefficient')
self.connect('max_efficiency', 'aep_a.max_efficiency')
self.connect('blade_number','tcc_a.blade_number')
self.connect('advanced_blade','tcc_a.advanced_blade')
# drivetrain
self.connect('machine_rating', ['aep_a.machine_rating', 'tcc_a.machine_rating', 'bos_a.machine_rating', 'opex_a.machine_rating'])
self.connect('drivetrain_design', ['aep_a.drivetrain_design', 'tcc_a.drivetrain_design'])
self.connect('crane','tcc_a.crane')
self.connect('advanced_bedplate','tcc_a.advanced_bedplate')
# tower
self.connect('hub_height', ['aep_a.hub_height', 'tcc_a.hub_height', 'bos_a.hub_height'])
self.connect('advanced_tower','tcc_a.advanced_tower')
# plant configuration
# climate
self.connect('sea_depth', ['bos_a.sea_depth', 'opex_a.sea_depth', 'fin_a.sea_depth'])
self.connect('offshore','tcc_a.offshore')
# plant operation
self.connect('turbine_number', ['aep_a.turbine_number', 'bos_a.turbine_number', 'opex_a.turbine_number'])
# financial
self.connect('year', ['tcc_a.year', 'bos_a.year', 'opex_a.year'])
self.connect('month', ['tcc_a.month', 'bos_a.month', 'opex_a.month'])
self.connect('fixed_charge_rate','fin_a.fixed_charge_rate')
self.connect('construction_finance_rate','fin_a.construction_finance_rate')
self.connect('tax_rate','fin_a.tax_rate')
self.connect('discount_rate','fin_a.discount_rate')
self.connect('construction_time','fin_a.construction_time')
self.connect('project_lifetime','fin_a.project_lifetime')
# connections
self.connect('aep_a.rotor_thrust','tcc_a.rotor_thrust')
self.connect('aep_a.rotor_torque','tcc_a.rotor_torque')
self.connect('aep_a.net_aep', ['opex_a.net_aep'])
self.connect('tcc_a.turbine_cost','bos_a.turbine_cost')
# create passthroughs for key output variables of interest
# aep_a
self.connect('aep_a.rated_rotor_speed','rated_rotor_speed')
self.connect('aep_a.rated_wind_speed','rated_wind_speed')
self.connect('aep_a.rotor_thrust','rotor_thrust')
self.connect('aep_a.rotor_torque','rotor_torque')
self.connect('aep_a.power_curve','power_curve')
#self.connect('aep_a.max_efficiency','max_efficiency')
self.connect('aep_a.gross_aep','gross_aep')
self.connect('aep_a.capacity_factor','capacity_factor')
# tcc_a
self.connect('tcc_a.turbine_mass','turbine_mass')
# fin_a
self.connect('fin_a.lcoe','lcoe')
def configure(self):
configure_extended_financial_analysis(self)
self.replace("tcc_a", tcc_csm_assembly())
self.replace("bos_a", bos_csm_assembly())
self.replace("opex_a", opex_csm_assembly())
self.replace("aep_a", aep_csm_assembly())
self.replace("fin_a", fin_csm_assembly())
# connect i/o to component and assembly inputs
# turbine configuration
# rotor
self.connect("rotor_diameter", ["aep_a.rotor_diameter", "tcc_a.rotor_diameter", "bos_a.rotor_diameter"])
self.connect("max_tip_speed", ["aep_a.max_tip_speed"])
self.connect("max_power_coefficient", "aep_a.max_power_coefficient")
self.connect("opt_tsr", "aep_a.opt_tsr")
self.connect("cut_in_wind_speed", "aep_a.cut_in_wind_speed")
self.connect("cut_out_wind_speed", "aep_a.cut_out_wind_speed")
self.connect("altitude", "aep_a.altitude")
self.connect("shear_exponent", "aep_a.shear_exponent")
self.connect("wind_speed_50m", "aep_a.wind_speed_50m")
self.connect("weibull_k", "aep_a.weibull_k")
self.connect("soiling_losses", "aep_a.soiling_losses")
self.connect("array_losses", "aep_a.array_losses")
self.connect("availability", "aep_a.availability")
self.connect("thrust_coefficient", "aep_a.thrust_coefficient")
self.connect("max_efficiency", "aep_a.max_efficiency")
self.connect("blade_number", "tcc_a.blade_number")
self.connect("advanced_blade", "tcc_a.advanced_blade")
# drivetrain
self.connect(
"machine_rating",
["aep_a.machine_rating", "tcc_a.machine_rating", "bos_a.machine_rating", "opex_a.machine_rating"],
)
self.connect("drivetrain_design", ["aep_a.drivetrain_design", "tcc_a.drivetrain_design"])
self.connect("crane", "tcc_a.crane")
self.connect("advanced_bedplate", "tcc_a.advanced_bedplate")
# tower
self.connect("hub_height", ["aep_a.hub_height", "tcc_a.hub_height", "bos_a.hub_height"])
self.connect("advanced_tower", "tcc_a.advanced_tower")
# plant configuration
# climate
self.connect("sea_depth", ["bos_a.sea_depth", "opex_a.sea_depth", "fin_a.sea_depth"])
self.connect("offshore", "tcc_a.offshore")
# plant operation
self.connect("turbine_number", ["aep_a.turbine_number", "bos_a.turbine_number", "opex_a.turbine_number"])
# financial
self.connect("year", ["tcc_a.year", "bos_a.year", "opex_a.year"])
self.connect("month", ["tcc_a.month", "bos_a.month", "opex_a.month"])
self.connect("fixed_charge_rate", "fin_a.fixed_charge_rate")
self.connect("construction_finance_rate", "fin_a.construction_finance_rate")
self.connect("tax_rate", "fin_a.tax_rate")
self.connect("discount_rate", "fin_a.discount_rate")
self.connect("construction_time", "fin_a.construction_time")
self.connect("project_lifetime", "fin_a.project_lifetime")
# connections
self.connect("aep_a.rotor_thrust", "tcc_a.rotor_thrust")
self.connect("aep_a.rotor_torque", "tcc_a.rotor_torque")
self.connect("aep_a.net_aep", ["opex_a.net_aep"])
self.connect("tcc_a.turbine_cost", "bos_a.turbine_cost")
# create passthroughs for key output variables of interest
# aep_a
self.connect("aep_a.rated_rotor_speed", "rated_rotor_speed")
self.connect("aep_a.rated_wind_speed", "rated_wind_speed")
self.connect("aep_a.rotor_thrust", "rotor_thrust")
self.connect("aep_a.rotor_torque", "rotor_torque")
self.connect("aep_a.power_curve", "power_curve")
# self.connect('aep_a.max_efficiency','max_efficiency')
self.connect("aep_a.gross_aep", "gross_aep")
self.connect("aep_a.capacity_factor", "capacity_factor")
# tcc_a
self.connect("tcc_a.turbine_mass", "turbine_mass")
# fin_a
self.connect("fin_a.lcoe", "lcoe")
def configure(self):
"""
tcc_a inputs:
advanced_blade = Bool
offshore = Bool
assemblyCostMultiplier = Float
overheadCostMultiplier = Float
profitMultiplier = Float
transportMultiplier = Float
aep inputs:
array_losses = Float
other_losses = Float
fin inputs:
fixed_charge_rate = Float
construction_finance_rate = Float
tax_rate = Float
discount_rate = Float
construction_time = Float
bos inputs:
bos_multiplier = Float
inputs:
sea_depth
year
month
project lifetime
if csm opex additional inputs:
availability = Float()
if openwind opex additional inputs:
power_curve
rpm
ct
if with_landbos additional inputs:
voltage
distInter
terrain
layout
soil
"""
# configure base assembly
configure_extended_financial_analysis(self)
# putting replace statements here for now; TODO - openmdao bug
# replace BOS with either CSM or landbos
if self.with_landbos:
self.replace('bos_a', NREL_Land_BOSSE())
else:
self.replace('bos_a', bos_csm_assembly())
#self.replace('tcc_a', Turbine_CostsSE_2015())
if self.with_ecn_opex:
self.replace('opex_a', opex_ecn_assembly(ecn_file))
else:
self.replace('opex_a', opex_csm_assembly())
self.replace('aep_a', aep_csm_assembly()) # TODO include AEP assembly from CSM and use to bridge rotor torque
self.replace('fin_a', fin_csm_assembly())
# replace TCC with turbine_costs
configure_lcoe_with_turb_costs(self)
# replace BOS with either CSM or landbos
if self.with_landbos:
configure_lcoe_with_landbos(self)
else:
configure_lcoe_with_csm_bos(self)
# replace AEP with weibull AEP (TODO: option for basic aep)
configure_lcoe_with_csm_aep(self)
self.connect('aep_a.rotor_torque','tcc_a.rotor_torque')
# replace OPEX with CSM or ECN opex and add AEP
if self.with_ecn_opex:
configure_lcoe_with_ecn_opex(self,ecn_file)
self.connect('opex_a.availability','aep_a.availability') # connecting here due to aep / opex reversal depending on model
else:
configure_lcoe_with_csm_opex(self)
self.add('availability',Float(0.94, iotype='in', desc='average annual availbility of wind turbines at plant'))
self.connect('availability','aep_a.availability') # connecting here due to aep / opex reversal depending on model
# replace Finance with CSM Finance
configure_lcoe_with_csm_fin(self)
