def test_is_phase_valid_vapor(self, m): m.comp4 = Solute(default={"valid_phase_types": PhaseType.vaporPhase}) assert not m.comp4._is_phase_valid(m.Liq) assert not m.comp4._is_phase_valid(m.Sol) assert m.comp4._is_phase_valid(m.Vap) assert not m.comp4._is_phase_valid(m.Aqu) assert not m.comp4._is_phase_valid(m.Phase)
def test_is_phase_valid_aqueous(self, m): m.comp6 = Solute(default={"valid_phase_types": PhaseType.aqueousPhase}) assert not m.comp6._is_phase_valid(m.Liq) assert not m.comp6._is_phase_valid(m.Sol) assert not m.comp6._is_phase_valid(m.Vap) assert m.comp6._is_phase_valid(m.Aqu) assert not m.comp6._is_phase_valid(m.Phase)
def test_is_phase_valid_solid(self, m): m.comp5 = Solute(default={"valid_phase_types": PhaseType.solidPhase}) assert not m.comp5._is_phase_valid(m.Liq) assert m.comp5._is_phase_valid(m.Sol) assert not m.comp5._is_phase_valid(m.Vap) assert not m.comp5._is_phase_valid(m.Aqu) assert not m.comp5._is_phase_valid(m.Phase)
def build(self): ''' Callable method for Block construction. ''' super(PropParameterData, self).build() self._state_block_class = PropStateBlock # phases self.Liq = LiquidPhase() # components self.H2O = Solvent() self.Na = Solute() self.Ca = Solute() self.Mg = Solute() self.SO4 = Solute() self.Cl = Solute() # molecular weight mw_comp_data = {'H2O': 18.015e-3, 'Na': 22.990e-3, 'Ca': 40.078e-3, 'Mg': 24.305e-3, 'SO4': 96.06e-3, 'Cl': 35.453e-3} self.mw_comp = Param(self.component_list, mutable=False, initialize=extract_data(mw_comp_data), units=pyunits.kg / pyunits.mol, doc="Molecular weight") self.dens_mass = Param(mutable=False, initialize=1000, units=pyunits.kg / pyunits.m**3, doc="Density") self.cp = Param(mutable=False, initialize=4.2e3, units=pyunits.J / (pyunits.kg * pyunits.K)) # ---default scaling--- self.set_default_scaling('temperature', 1e-2) self.set_default_scaling('pressure', 1e-6)
def test_is_phase_valid_LV(self, m): m.comp7 = Solute(default={ "valid_phase_types": [PhaseType.liquidPhase, PhaseType.vaporPhase] }) assert m.comp7._is_phase_valid(m.Liq) assert not m.comp7._is_phase_valid(m.Sol) assert m.comp7._is_phase_valid(m.Vap) assert not m.comp7._is_phase_valid(m.Aqu) assert not m.comp7._is_phase_valid(m.Phase)
def build(self): ''' Callable method for Block construction. ''' super().build() self._state_block_class = WaterStateBlock self.Liq = LiquidPhase() self.H2O = Solvent() # Get component set from database if provided comp_set = None if self.config.database is not None: comp_set = self.config.database.get_solute_set( self.config.water_source) # Check definition of solute list solute_list = self.config.solute_list if solute_list is None: # No user-provided solute list, look up list from database if comp_set is None: # No solute list in database and none provided. raise ConfigurationError( f"{self.name} no solute_list or database was defined. " f"Users must provide at least one of these arguments.") else: solute_list = comp_set elif self.config.database is not None: # User provided custom list and database - check that all # components are supported for j in solute_list: if j not in comp_set: _log.info(f"{self.name} component {j} is not defined in " f"the water_sources database file.") else: # User provided list but no database - assume they know what they # are doing pass for j in solute_list: self.add_component(str(j), Solute()) # Define default value for mass density of solution self.dens_mass_default = 1000 * pyunits.kg / pyunits.m**3 # Define default value for dynamic viscosity of solution self.visc_d_default = 0.001 * pyunits.kg / pyunits.m / pyunits.s # --------------------------------------------------------------------- # Set default scaling factors self.default_scaling_factor = { ("flow_vol"): 1e3, ("conc_mass_comp"): 1e2 }
def m(self): m = ConcreteModel() m.meta_object = PropertyClassMetadata() def get_metadata(self): return m.meta_object m.get_metadata = types.MethodType(get_metadata, m) m.comp = Solute() return m
def test_is_phase_valid_liquid(self, m): m.comp3 = Solute(default={"valid_phase_types": PhaseType.liquidPhase}) m.Liq = LiquidPhase() m.Sol = SolidPhase() m.Vap = VaporPhase() m.Aqu = AqueousPhase() m.Phase = Phase() assert m.comp3._is_phase_valid(m.Liq) assert not m.comp3._is_phase_valid(m.Sol) assert not m.comp3._is_phase_valid(m.Vap) assert not m.comp3._is_phase_valid(m.Aqu) assert not m.comp3._is_phase_valid(m.Phase)
def m(self): m = ConcreteModel() m.meta_object = PropertyClassMetadata() m.meta_object.add_default_units({ 'time': pyunits.s, 'length': pyunits.m, 'mass': pyunits.kg, 'amount': pyunits.mol, 'temperature': pyunits.K}) def get_metadata(self): return m.meta_object m.get_metadata = types.MethodType(get_metadata, m) m.comp = Solute() return m
def build(self): ''' Callable method for Block construction. ''' super(NaClParameterData, self).build() self._state_block_class = NaClStateBlock # components self.H2O = Solvent() self.NaCl = Solute() # phases self.Liq = LiquidPhase() # reference # this package is developed from Bartholomew & Mauter (2019) https://doi.org/10.1016/j.memsci.2018.11.067 # the enthalpy calculations are from Sharqawy et al. (2010) http://dx.doi.org/10.5004/dwt.2010.1079 # molecular weight mw_comp_data = {'H2O': 18.01528E-3, 'NaCl': 58.44E-3} self.mw_comp = Param(self.component_list, mutable=False, initialize=extract_data(mw_comp_data), units=pyunits.kg / pyunits.mol, doc="Molecular weight kg/mol") # mass density parameters, eq 4 in Bartholomew dens_mass_param_dict = {'0': 995, '1': 756} self.dens_mass_param = Var(dens_mass_param_dict.keys(), domain=Reals, initialize=dens_mass_param_dict, units=pyunits.kg / pyunits.m**3, doc='Mass density parameters') # dynamic viscosity parameters, eq 5 in Bartholomew visc_d_param_dict = {'0': 9.80E-4, '1': 2.15E-3} self.visc_d_param = Var(visc_d_param_dict.keys(), domain=Reals, initialize=visc_d_param_dict, units=pyunits.Pa * pyunits.s, doc='Dynamic viscosity parameters') # diffusivity parameters, eq 6 in Bartholomew diffus_param_dict = { '0': 1.51e-9, '1': -2.00e-9, '2': 3.01e-8, '3': -1.22e-7, '4': 1.53e-7 } self.diffus_param = Var(diffus_param_dict.keys(), domain=Reals, initialize=diffus_param_dict, units=pyunits.m**2 / pyunits.s, doc='Dynamic viscosity parameters') # osmotic coefficient parameters, eq. 3b in Bartholomew osm_coeff_param_dict = {'0': 0.918, '1': 8.89e-2, '2': 4.92} self.osm_coeff_param = Var(osm_coeff_param_dict.keys(), domain=Reals, initialize=osm_coeff_param_dict, units=pyunits.dimensionless, doc='Osmotic coefficient parameters') # TODO: update for NaCl solution, relationship from Sharqawy is for seawater # specific enthalpy parameters, eq. 55 and 43 in Sharqawy (2010) self.enth_mass_param_A1 = Var(within=Reals, initialize=124.790, units=pyunits.J / pyunits.kg, doc='Specific enthalpy parameter A1') self.enth_mass_param_A2 = Var(within=Reals, initialize=4203.075, units=(pyunits.J / pyunits.kg) * pyunits.K**-1, doc='Specific enthalpy parameter A2') self.enth_mass_param_A3 = Var(within=Reals, initialize=-0.552, units=(pyunits.J / pyunits.kg) * pyunits.K**-2, doc='Specific enthalpy parameter A3') self.enth_mass_param_A4 = Var(within=Reals, initialize=0.004, units=(pyunits.J / pyunits.kg) * pyunits.K**-3, doc='Specific enthalpy parameter A4') self.enth_mass_param_B1 = Var(within=Reals, initialize=27062.623, units=pyunits.dimensionless, doc='Specific enthalpy parameter B1') self.enth_mass_param_B2 = Var(within=Reals, initialize=4835.675, units=pyunits.dimensionless, doc='Specific enthalpy parameter B2') # traditional parameters are the only Vars currently on the block and should be fixed for v in self.component_objects(Var): v.fix() # ---default scaling--- self.set_default_scaling('temperature', 1e-2) self.set_default_scaling('pressure', 1e-6) self.set_default_scaling('dens_mass_phase', 1e-3, index='Liq') self.set_default_scaling('visc_d_phase', 1e3, index='Liq') self.set_default_scaling('diffus_phase', 1e9, index='Liq') self.set_default_scaling('osm_coeff', 1e0) self.set_default_scaling('enth_mass_phase', 1e-5, index='Liq')
def build(self): ''' Callable method for Block construction. ''' super(DSPMDEParameterData, self).build() self._state_block_class = DSPMDEStateBlock # components self.H2O = Solvent() for j in self.config.solute_list: self.add_component(str(j), Solute()) # phases self.Liq = LiquidPhase() # reference # Todo: enter any relevant references # TODO: consider turning parameters into variables for future param estimation # molecular weight self.mw_comp = Param( self.component_list, mutable=True, default=18e-3, initialize=self.config.mw_data, units=pyunits.kg/pyunits.mol, doc="Molecular weight") # Stokes radius self.radius_stokes_comp = Param( self.solute_set, mutable=True, default=1e-10, initialize=self.config.stokes_radius_data, units=pyunits.m, doc="Stokes radius of solute") self.diffus_phase_comp = Param( self.phase_list, self.solute_set, mutable=True, default=1e-9, initialize=self.config.diffusivity_data, units=pyunits.m ** 2 * pyunits.s ** -1, doc="Bulk diffusivity of ion") self.visc_d_phase = Param( self.phase_list, mutable=True, default=1e-3, initialize=1e-3, #TODO:revisit- assuming ~ 1e-3 Pa*s for pure water units=pyunits.Pa * pyunits.s, doc="Fluid viscosity") # Ion charge self.charge_comp = Param( self.solute_set, mutable=True, default=1, initialize=self.config.charge, units=pyunits.dimensionless, doc="Ion charge") # Dielectric constant of water self.dielectric_constant = Param( mutable=True, default=80.4, initialize=80.4, #todo: make a variable with parameter values for coefficients in the function of temperature units=pyunits.dimensionless, doc="Dielectric constant of water") # ---default scaling--- self.set_default_scaling('temperature', 1e-2) self.set_default_scaling('pressure', 1e-6) self.set_default_scaling('dens_mass_phase', 1e-3, index='Liq') self.set_default_scaling('visc_d_phase', 1e3, index='Liq')