class ParameterComplete(parametertools.ZipParameter): """Base class for 1-dimensional parameters relevant for all types of landuse. Class |ParameterComplete| of base model |lland| basically works like class |hland_parameters.ParameterComplete| of base model |hland|, but references |lland| specific parameters and constants, as shown in the following examples based on parameter |KG| (for explanations, see the documentation on class |hland_parameters.ParameterComplete|): >>> from hydpy.models.lland import * >>> parameterstep("1d") >>> nhru(5) >>> lnk(ACKER, VERS, GLETS, SEE, ACKER) >>> kg(acker=2.0, vers=1.0, glets=4.0, see=3.0) >>> kg kg(acker=2.0, glets=4.0, see=3.0, vers=1.0) >>> kg.values array([2., 1., 4., 3., 2.]) >>> kg(5.0, 4.0, 3.0, 2.0, 1.0) >>> derived.absfhru(0.0, 0.1, 0.2, 0.3, 0.4) >>> from hydpy import round_ >>> round_(kg.average_values()) 2.0 """ MODEL_CONSTANTS = lland_constants.CONSTANTS mask = lland_masks.Complete() @property def refweights(self): """Alias for the associated instance of |FHRU| for calculating areal mean values.""" return self.subpars.pars.derived.absfhru
class Flux1DSequence(sequencetools.FluxSequence): """Base class for 1-dimensional flux subclasses that support aggregation with respect to |AbsFHRU|. All |Flux1DSequence| subclasses should stick to the mask |Complete|. The following example shows how subclass |NKor| works: >>> from hydpy.models.lland import * >>> parameterstep('1d') >>> nhru(4) >>> lnk(ACKER, GLETS, VERS, SEE) >>> derived.absfhru(10.0, 20.0, 30.0, 40.0) >>> fluxes.nkor(5.0, 2.0, 4.0, 1.0) >>> from hydpy import round_ >>> round_(fluxes.nkor.average_values()) 2.5 """ mask = lland_masks.Complete() @property def refweights(self): """Alias for the associated instance of |AbsFHRU| for calculating areal values.""" return self.subseqs.seqs.model.parameters.derived.absfhru
class DailyNetRadiation(lland_sequences.Flux1DSequence): """Daily net radiation [W/m²]. With positive values, the soil gains heat from radiation. """ NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class DailyNetLongwaveRadiation(lland_sequences.Flux1DSequence): """Daily net longwave radiation [MJ/m²/d]. With positive values, the soil looses heat from radiation. """ NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class NetShortwaveRadiation(lland_sequences.Flux1DSequence): """Netto kurzwellige Strahlungsbilanz (net shortwave radiation) [W/m²]. With positive values, the soil gains heat from radiation. """ NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class QIB2(lland_sequences.Flux1DSequence): """Zweite Komponente der Interflow-Abgabe aus dem Bodenspeicher (second component of the interflow release from the soil storage) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class QDB(lland_sequences.Flux1DSequence): """Direktabfluss-Abgabe aus dem Bodenspeicher (direct runoff release from the soil storage) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class TKor(lland_sequences.Flux1DSequence): """Korrigierte Lufttemperatur (corrected air temperature) [°C].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class NKor(lland_sequences.Flux1DSequence): """Korrigierter Niederschlag (corrected precipitation) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class ActualAlbedo(lland_sequences.Flux1DSequence): """Aktuelle Albedo der relevanten Oberfläche (the current albedo of the relevant surface) [-].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class EvI(lland_sequences.Flux1DSequence): """Tatsächliche Interzeptionsverdunstung (actual evaporation of intercepted water) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class DailySaturationVapourPressureSlope(lland_sequences.Flux1DSequence): """Daily satuarion vapour pressure [hPa/K].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class SaturationVapourPressure(lland_sequences.Flux1DSequence): """Saturation vapour pressure [hPa].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class TKorTag(lland_sequences.Flux1DSequence): """Tageswert der korrigierten Lufttemperatur (corrected daily air temperature) [°C].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class DensityAir(lland_sequences.Flux1DSequence): """Air density [kg/m³]""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class DryAirPressure(lland_sequences.Flux1DSequence): """Dry air pressure [hPa].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class DailyActualVapourPressure(lland_sequences.Flux1DSequence): """Daily actual vapour pressure [hPa].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class QBB(lland_sequences.Flux1DSequence): """Basisabfluss-Abgabe aus dem Bodenspeicher (base flow release from the soil storage) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class EvPo(lland_sequences.Flux1DSequence): """Evapotranspiration (evapotranspiration) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class QKap(lland_sequences.Flux1DSequence): """Kapillarer Aufstieg in den Bodenspeicher (capillary rise to soil storage) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class SaturationVapourPressureSlope(lland_sequences.Flux1DSequence): """The slope of the saturation vapour pressure curve [hPa/K].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class ReducedWindSpeed2m(lland_sequences.Flux1DSequence): """Land-use-specific wind speed at a height of 2 m above the ground [m/s].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()
class ET0(lland_sequences.Flux1DSequence): """Grasreferenzverdunstung (reference evapotranspiration) [mm/T].""" NDIM, NUMERIC = 1, False mask = lland_masks.Complete()