sunpeek.components.physical.Plant#

class sunpeek.components.physical.Plant(name=None, owner=None, operator=None, description=None, plant_measurement_accuracy=None, location_name=None, latitude=None, longitude=None, elevation=None, fluid_solar=None, fluidvol_total=None, arrays=None, sensor_map=None, raw_sensors=None, **kwargs)#

Bases: Component

Implements large solar thermal plant as the overarching component on which the kernel methods are applied.

Variables:

  • name (str) – Plant name. Must be unique within HarvestIT ‘plant’ database.

  • owner (str, optional) – Name of plant owner.

  • operator (str, optional) – Name of plant operator.

  • description (str, optional) – Description of the plant, its components, hydraulic setup and other relevant information.

  • location_name (str, optional) – Name of the location. Example: ‘Graz, Austria’

  • latitude (pint Quantity) – Geographical latitude. Positive is north of the equator. See `pvlib Location`_.

  • longitude (pint Quantity) – Geographical longitude. Positive is east of the prime meridian. See `pvlib Location`_.

  • elevation (pint Quantity, optional) – Location elevation, e.g. Q(440, ‘m’). If available, used to improve pvlib’s solar position calculation.

  • data_upload_defaults (DataUploadDefaults,) – Defaults for parsing raw data files for this plant. Defaults to an all null DataUploadDefaults

  • fluid_solar (Fluid object) – Fluid in the solar circuit. Optional for the PC (Performance Check) method (but stated in the standard report, see Annex A1 in ISO standard 24194), required for the D-CAT (Dynamic Collector Array Test) method.

  • fluidvol_total (pint Quantity, optional) – Total fluid content of the solar side (including all pipes, collectors etc).

  • tp (Sensor) – Total thermal power of the plant, including all its collector arrays.

  • vf (Sensor) – Total volume flow in the solar circuit of the plant, for all collector arrays.

  • mf (Sensor) – Total mass flow in the solar circuit of the plant, for all collector arrays.

  • te_amb (Sensor) – Ambient air temperature representative for the plant.

  • ve_wind (Sensor, optional) – Wind speed / wind velocity representative for the plant.

  • rh_amb (Sensor, optional) – Ambient relative humidity representative for the plant.

  • te_dew_amb (Sensor, optional, or virtual Sensor) – Dew point temperature representative for the plant. Is calculated as a virtual sensor if both te_amb and rh_amb have data (are not None).

  • pr_amb (Sensor, optional) – Ambient air pressure representative for the plant.

  • te_in (Sensor, optional) – Inlet / return temperature of the plant; this is the temperature after the heat exchanger, sent back to the collector arrays.

  • te_out (Sensor, optional) – Outlet / flow temperature of the plant; this is the temperature received by all collector arrays together, before the fluid enters the heat exchanger.

  • rd_ghi (virtual Sensor) – Global horizontal irradiance. Calculated by a radiation model from in_global, in_beam, in_diffuse, in_dni.

  • rd_bhi (virtual Sensor) – Direct / beam horizontal irradiance. Calculated by a radiation model from in_global, in_beam, in_diffuse, in_dni.

  • rd_dhi (virtual Sensor) – Diffuse horizontal irradiance. Calculated by a radiation model from in_global, in_beam, in_diffuse, in_dni.

  • sun_azimuth (virtual Sensor) – Solar azimuth angle.

  • sun_zenith (virtual Sensor) – Solar zenith angle.

  • sun_apparent_zenith (virtual Sensor) – Apparent solar zenith angle.

  • sun_elevation (virtual Sensor) – Solar elevation / altitude angle.

  • sun_apparent_elevation (virtual Sensor) – Apparent solar elevation / altitude angle.

  • rd_dni (virtual Sensor) – Direct normal irradiance. Calculated by a radiation model from in_global, in_beam, in_diffuse, in_dni.

  • rd_dni_extra (virtual Sensor) – Extraterrestrial solar radiation.

  • linke_turbidity (virtual Sensor) – Linke turbidity calculated for specific location and date.

  • rd_ghi_clearsky (virtual Sensor) – Clear sky global horizontal irradiance based on Linke turbidity, calculated with pvlib.clearsky.ineichen

  • rd_dni_clearsky (virtual Sensor) – Clear sky direct normal irradiance (DNI) based on Linke turbidity, calculated with pvlib.clearsky.ineichen

  • rel_airmass (virtual Sensor) – Relative airmass.

  • abs_airmass (virtual Sensor) – Absolute airmass.

  • calculate (These sensors start with _ because they don't really belong to the plant, they are just input Sensor to)

  • .rd_dhi (the proper Plant.rd_ghi, .rd_bhi,)

  • in_global (Sensor, optional) – Global radiation sensor to be used to calculate horizontal radiation components for the plant. The sensor may be installed at a non-zero tilt angle, in that case the horizontal radiation components will be calculated by a radiation model.

  • in_beam (Sensor, optional) – Direct / beam radiation sensor to be used to calculate horizontal radiation components for the plant. The sensor may be installed at a non-zero tilt angle, in that case the horizontal radiation components will be calculated by a radiation model.

  • in_diffuse (Sensor, optional) – Diffuse radiation sensor to be used to calculate horizontal radiation components for the plant. The sensor may be installed at a non-zero tilt angle, in that case the horizontal radiation components will be calculated by a radiation model.

  • in_dni (Sensor, optional) – Direct normal irradiance (DNI) sensor to be used to calculate horizontal radiation components for the plant.

References

Methods

__init__([name, owner, operator, ...])

A simple constructor that allows initialization from kwargs.

add_array(arrays)

Convenience method for adding items to plant.arrays.

add_component_attr(name[, unit, minimum, ...])

add_operational_event(start[, end, tz, ...])

all_subclasses([c])

define_component_attrs()

delete_all_data()

get_component_attribute(name)

get_default_unit(name)

Return default unit of a class attribute defined as ComponentParam.

get_raw_names([include_virtuals, only_virtuals])

get_raw_sensor(raw_name[, raise_if_not_found])

get_real_slots()

Get component's slot names for (possibly or always) real (not virtual) sensors

has_virtual_slot_named(slot_name)

Assert component has a (possibly or always) virtual sensor slot named slot_name.

is_attrib_missing(attrib_name)

Return True if component attribute is None or not a ComponentParam holding a Quantity.

is_ignored(timestamp)

Checks if a timestamp is in an ignored range

is_real_sensor_missing(slot_name, check_mode)

Like is_sensor_missing, but additionally checks if sensor in named slot is real (not virtual).

is_sensor_missing(slot_name, check_mode)

Return True if component slot has no sensor mapped or sensor is not ready for calculations.

map_sensor(sensor, slot_name)

Maps sensor to slot_name of given component, including some sanity checks.

map_vsensor(slot_name, feedback)

Create virtual Sensor and map it to component.slot_name, or map None if it cannot be calculated.

register_callback(callback_type, func)

reset_cache()

set_component_attribute(name, value, array_type)

set_default_context([datasource])

Create and set default context as Context with parquet datasource.

set_sensors(**kwargs)

Maps one or multiple sensors (by calling map_sensor()) and handles configuring virtual sensors.

update_sensors(is_remove)

add_array(arrays)#

Convenience method for adding items to plant.arrays. Equivalent to plant.arrays += array or plant.arrays.append(array).

Parameters:

arrays (Array or list of Array)

Return type:

Updated list of Array objects for the plant

add_operational_event(start, end=None, tz=None, description=None, ignored_range=False)#
Parameters:

  • start (A datetime object, or a string. If the string does not contain a df_timezone like '2022-1-1 00:00+1',) – then the tz argument must also be specified.

  • end (A datetime object, or a string. If the string does not contain a df_timezone like '2022-1-2 00:00+1',) – then the tz argument must also be specified.

  • tz (A df_timezone string like 'Europe/Vienna' or any pytz time zone, like pytz.FixedOffset(60))

  • description (str) – A description of the event or reason for ignored range.

  • ignored_range (bool) – If data in the period specified in the event should be ignored

Return type:

None

classmethod get_default_unit(name)#

Return default unit of a class attribute defined as ComponentParam.

Return type:

str

classmethod get_real_slots()#

Get component’s slot names for (possibly or always) real (not virtual) sensors

has_virtual_slot_named(slot_name)#

Assert component has a (possibly or always) virtual sensor slot named slot_name.

property ignored_ranges: List[Interval]#

Gets a list of time ranges to be ignored from the plant’s operational_events

is_attrib_missing(attrib_name)#

Return True if component attribute is None or not a ComponentParam holding a Quantity.

Return type:

bool

is_ignored(timestamp)#

Checks if a timestamp is in an ignored range

Parameters:

timestamp (datetime.datetime or pandas.Timestamp or str)

Return type:

bool

is_real_sensor_missing(slot_name, check_mode)#

Like is_sensor_missing, but additionally checks if sensor in named slot is real (not virtual).

Return type:

bool

is_sensor_missing(slot_name, check_mode)#

Return True if component slot has no sensor mapped or sensor is not ready for calculations.

Return type:

bool

map_sensor(sensor, slot_name)#

Maps sensor to slot_name of given component, including some sanity checks.

map_vsensor(slot_name, feedback)#

Create virtual Sensor and map it to component.slot_name, or map None if it cannot be calculated.

Parameters:

  • slot_name (str, slot / channel name of the component self to which the virtual sensor will be mapped.)

  • feedback (CoreMethodFeedback, problems reported at config time, prior to vsensor calculation.)

set_default_context(datasource=None)#

Create and set default context as Context with parquet datasource. Does not upload or affect any data.

set_sensors(**kwargs)#

Maps one or multiple sensors (by calling map_sensor()) and handles configuring virtual sensors.

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