示例#1
0
    def __init__(self,fixed_charge_rate = 0.12, construction_finance_rate=0.0, tax_rate = 0.4, discount_rate = 0.07, \
                      construction_time = 1.0, project_lifetime = 20.0, sea_depth = 20.0):

        super(fin_csm_fused, self).__init__()

        self.implement_fifc(fifc_finance) # pulls in variables from fused-wind interface (not explicit)
        self.add_output(**fusedvar('lcoe',0.0)) 
        self.add_input(**fusedvar('sea_depth',0.0)) # #20.0, units = 'm', iotype = 'in', desc = 'sea depth for offshore wind plant')
        
        self.fin = fin_csm(fixed_charge_rate, construction_finance_rate, tax_rate, discount_rate, \
                      construction_time, project_lifetime)
    def __init__(self):
        super(opex_csm_fused, self).__init__()

        self.implement_fifc(fifc_opex)

        # Add model specific inputs
        self.add_input(
            **fusedvar('sea_depth', 0.0)
        )  # #20.0, units = 'm', iotype = 'in', desc = 'sea depth for offshore wind plant')
        self.add_input(**fusedvar(
            'year',
            0.0))  # = Int(2009, iotype='in', desc='year for project start')
        self.add_input(**fusedvar(
            'month', 0.0
        ))  # iotype = 'in', desc= 'month for project start') # units = months
        self.add_input(
            **fusedvar('net_aep', 0.0)
        )  # units = 'kW * h', iotype = 'in', desc = 'annual energy production for the plant')

        # Add model specific outputs
        self.add_output(
            **fusedvar('opex_breakdown_preventative_opex', 0.0)
        )  # desc='annual expenditures on preventative maintenance - BOP and turbines'
        self.add_output(
            **fusedvar('opex_breakdown_corrective_opex', 0.0)
        )  # desc='annual unscheduled maintenance costs (replacements) - BOP and turbines'
        self.add_output(**fusedvar('opex_breakdown_lease_opex',
                                   0.0))  # desc='annual lease expenditures'
        self.add_output(**fusedvar(
            'opex_breakdown_other_opex',
            0.0))  # desc='other operational expenditures such as fixed costs'

        self.opex = opex_csm_component()
    def __init__(self, offshore=False, advanced_blade=True, drivetrain_design='geared', \
                       crane=True, advanced_bedplate=0, advanced_tower=False):

        super(tcc_csm_fused, self).__init__()

        self.offshore = offshore 
        self.advanced_blade = advanced_blade 
        self.drivetrain_design = drivetrain_design 
        self.crane = crane 
        self.advanced_bedplate = advanced_bedplate  
        self.advanced_tower = advanced_tower

        self.implement_fifc(fifc_tcc_costs) # pulls in variables from fused-wind interface (not explicit)

        # Add model specific inputs
        self.add_input(**fusedvar('rotor_thrust',0.0))
        self.add_input(**fusedvar('rotor_torque',0.0)) 
        self.add_input(**fusedvar('year',2009)) 
        self.add_input(**fusedvar('month',12))

        # Add model specific outputs
        self.add_output(**fusedvar('rotor_cost',0.0))
        self.add_output(**fusedvar('rotor_mass',0.0)) 
        self.add_output(**fusedvar('turbine_mass',0.0)) 

        self.tcc = tcc_csm()
    def __init__(self):

        super(bos_csm_fused, self).__init__()

        self.implement_fifc(
            fifc_bos_costs
        )  # pulls in variables from fused-wind interface (not explicit)

        # Add model specific inputs
        self.add_input(
            **fusedvar('sea_depth', 0.0)
        )  # = Float(20.0, units = 'm', iotype = 'in', desc = 'sea depth for offshore wind plant')
        self.add_input(**fusedvar(
            'year',
            0.0))  # = Int(2009, iotype='in', desc='year for project start')
        self.add_input(**fusedvar(
            'month',
            0.0))  # = Int(12, iotype = 'in', desc= 'month for project start')
        self.add_input(**fusedvar('multiplier',
                                  0.0))  # = Float(1.0, iotype='in')

        # Add model specific outputs
        self.add_output(
            **fusedvar('bos_breakdown_development_costs', 0.0)
        )  #  = Float(desc='Overall wind plant balance of station/system costs up to point of comissioning')
        self.add_output(**fusedvar(
            'bos_breakdown_preparation_and_staging_costs',
            0.0))  #  = Float(desc='Site preparation and staging')
        self.add_output(
            **fusedvar('bos_breakdown_transportation_costs', 0.0)
        )  #  = Float(desc='Any transportation costs to site / staging site') #BOS or turbine cost?
        self.add_output(**fusedvar(
            'bos_breakdown_foundation_and_substructure_costs',
            0.0))  # Float(desc='Foundation and substructure costs')
        self.add_output(
            **fusedvar('bos_breakdown_electrical_costs', 0.0)
        )  # Float(desc='Collection system, substation, transmission and interconnect costs')
        self.add_output(**fusedvar(
            'bos_breakdown_assembly_and_installation_costs',
            0.0))  # Float(desc='Assembly and installation costs')
        self.add_output(
            **fusedvar('bos_breakdown_soft_costs', 0.0)
        )  # = Float(desc='Contingencies, bonds, reserves, decommissioning, profits, and construction financing costs')
        self.add_output(**fusedvar(
            'bos_breakdown_other_costs', 0.0
        ))  # = Float(desc='Bucket for any other costs not captured above')

        self.bos = bos_csm()
示例#5
0
    def __init__(self):
        super(aep_csm_fused, self).__init__()

        self.implement_fifc(
            fifc_aep
        )  # pulls in variables from fused-wind interface (not explicit)

        # Add model specific inputs
        self.add_input(**fusedvar('max_tip_speed', 0.0))
        self.add_input(**fusedvar('max_power_coefficient', 0.0))
        self.add_input(**fusedvar('opt_tsr', 0.0))
        self.add_input(**fusedvar('cut_in_wind_speed', 0.0))
        self.add_input(**fusedvar('cut_out_wind_speed', 0.0))
        self.add_input(**fusedvar('air_density', 0.0))
        self.add_input(**fusedvar('max_efficiency', 0.0))
        self.add_input(**fusedvar('thrust_coefficient', 0.0))
        self.add_input(**fusedvar('soiling_losses', 0.0))
        self.add_input(**fusedvar('array_losses', 0.0))
        self.add_input(**fusedvar('availability', 0.0))
        self.add_input(**fusedvar('shear_exponent', 0.0))
        self.add_input(**fusedvar('wind_speed_50m', 0.0))
        self.add_input(**fusedvar('weibull_k', 0.0))
        self.add_input(**fusedvar('hub_height', 0.0))
        self.add_input(**fusedvar('altitude', 0.0))

        # Add model specific outputs
        self.add_output(
            **fusedvar('rated_wind_speed', 0.)
        )  # = Float(11.506, units = 'm / s', iotype='out', desc='wind speed for rated power')
        self.add_output(
            **fusedvar('rated_rotor_speed', 0.)
        )  # = Float(12.126, units = 'rpm', iotype='out', desc = 'rotor speed at rated power')
        self.add_output(
            **fusedvar('rotor_thrust', 0.)
        )  # = Float(iotype='out', units='N', desc='maximum thrust from rotor')
        self.add_output(
            **fusedvar('rotor_torque', 0.)
        )  # = Float(iotype='out', units='N * m', desc = 'torque from rotor at rated power')
        # self.add_output(**fusedvar('power_curve', np.zeros(161))) # = Array(np.array([[4.0,80.0],[25.0, 5000.0]]), iotype='out', desc = 'power curve for a particular rotor')
        self.add_output(
            **fusedvar('gross_aep', 0.)
        )  # = Float(0.0, iotype='out', desc='Gross Annual Energy Production before availability and loss impacts', unit='kWh')
        self.add_output(**fusedvar(
            'capacity_factor',
            0.))  # = Float(iotype='out', desc='plant capacity factor')

        self.aep_csm_assembly = aep_csm_assembly()