def __init__(self):
"""Define the fields of a SWMM Project by creating an empty placeholder for each section"""
ProjectBase.__init__(self)
self.title = Title() # TITLE project title
self.options = General() # OPTIONS analysis options
self.report = Report() # REPORT output reporting instructions
self.files = Files() # FILES interface file options
self.backdrop = BackdropOptions(
) # BACKDROP bounding rectangle and file name of backdrop image
self.map = MapOptions(
) # MAP map's bounding rectangle and units
self.raingages = SectionAsList(
"[RAINGAGES]"
) # (list of RainGage) # RAINGAGES rain gage information
self.hydrographs = SectionAsList(
"[HYDROGRAPHS]") # (list of UnitHydrograph)
# unit hydrograph data used to construct RDII inflows
self.evaporation = Evaporation() # EVAPORATION evaporation data
self.temperature = Temperature(
) # TEMPERATURE air temperature and snow melt data
self.adjustments = Adjustments(
) # ADJUSTMENTS monthly climate adjustments
self.subcatchments = SectionAsList(
"[SUBCATCHMENTS]") # (list of Subcatchment)
# basic subcatchment information
# self.subareas = [Section] # SUBAREAS subcatchment impervious/pervious sub-area data
self.infiltration = SectionAsList("[INFILTRATION]") # (list of str)
# subcatchment infiltration parameters
self.lid_controls = SectionAsList(
"[LID_CONTROLS]") # (list of LIDControl)
# low impact development control information
self.lid_usage = SectionAsList("[LID_USAGE]") # (list of LIDUsage)
# assignment of LID controls to subcatchments
self.aquifers = SectionAsList("[AQUIFERS]") # (list of Aquifer)
# groundwater aquifer parameters
self.groundwater = SectionAsList(
"[GROUNDWATER]") # (list of Groundwater)
# subcatchment groundwater parameters
self.snowpacks = SectionAsList("[SNOWPACKS]") # (list of SnowPack)
# subcatchment snow pack parameters
self.junctions = SectionAsList("[JUNCTIONS]") # (list of Junction)
# junction node information
self.outfalls = SectionAsList("[OUTFALLS]") # (list of Outfall)
# outfall node information
self.dividers = SectionAsList("[DIVIDERS]") # (list of Divider)
# flow divider node information
self.storage = SectionAsList("[STORAGE]") # (list of StorageUnit)
# storage node information
self.conduits = SectionAsList("[CONDUITS]") # (list of Conduit)
# conduit link information
self.pumps = SectionAsList("[PUMPS]") # (list of Pump)
# pump link information
self.orifices = SectionAsList("[ORIFICES]") # (list of Orifice)
# orifice link information
self.weirs = SectionAsList("[WEIRS]") # (list of Weir)
# weir link information
self.outlets = SectionAsList("[OUTLETS]") # (list of Outlet)
# outlet link information
self.xsections = SectionAsList("[XSECTIONS]") # (list of CrossSection)
# conduit, orifice, and weir cross-section geometry
self.transects = Transects(
) # transect geometry for conduits with irregular cross-sections
self.controls = Controls()
# rules that control pump and regulator operation
self.events = SectionAsList("[EVENTS]") # (list of Events)
self.landuses = SectionAsList(
"[LANDUSES]") # (list of Landuse) # land use categories
self.buildup = SectionAsList("[BUILDUP]") # (list of Buildup)
# buildup functions for pollutants and land uses
self.washoff = SectionAsList("[WASHOFF]") # (list of Washoff)
# washoff functions for pollutants and land uses
self.pollutants = SectionAsList("[POLLUTANTS]") # (list of Pollutant)
# pollutant information
self.coverages = Coverages(
) # COVERAGES assignment of land uses to subcatchments
self.treatment = SectionAsList("[TREATMENT]") # (list of Treatment)
# pollutant removal functions at conveyance system nodes
self.inflows = SectionAsList("[INFLOWS]") # (list of DirectInflow)
# INFLOWS # external hydrograph/pollutograph inflow at nodes
self.dwf = SectionAsList("[DWF]") # (list of DryWeatherInflow)
# baseline dry weather sanitary inflow at nodes
self.patterns = SectionAsList("[PATTERNS]") # (list of Pattern)
# periodic variation in dry weather inflow
self.rdii = SectionAsList("[RDII]") # (list of RDIInflow)
# rainfall-dependent I/I information at nodes
self.loadings = InitialLoadings()
# initial pollutant loads on subcatchments
self.curves = SectionAsList("[CURVES]") # (list of Curve)
# CURVES x-y tabular data referenced in other sections
self.timeseries = SectionAsList("[TIMESERIES]") # (list of TimeSeries)
# time series data referenced in other sections
self.labels = SectionAsList("[LABELS]") # (list of Label)
# X, Y coordinates and text of labels
self.subcentroids = SectionAsList(
"[SUBCENTROIDS]") # (list of subcentroids)
# X, Y coordinates and text of subcentroids
self.sublinks = SectionAsList("[SUBLINKS]") # (list of sublinks)
# sublinks information
self.sections = [
self.title, self.options, self.evaporation, self.raingages,
self.subcatchments, self.infiltration, self.junctions,
self.dividers, self.storage, self.outfalls, self.conduits,
self.pumps, self.orifices, self.weirs, self.outlets,
self.xsections, self.landuses, self.coverages, self.pollutants,
self.timeseries, self.patterns, self.curves, self.dwf, self.rdii,
self.loadings, self.buildup, self.washoff, self.report,
self.events, self.files, self.backdrop, self.map, self.hydrographs,
self.temperature, self.adjustments, self.lid_controls,
self.lid_usage, self.aquifers, self.groundwater, self.snowpacks,
self.transects, self.controls, self.treatment, self.inflows,
self.labels, self.subcentroids, self.sublinks
] # Start with a sensible order of sections.
self.add_sections_from_attributes(
) # Add any sections not added in the line above, should not be any left.
class SwmmProject(ProjectBase):
"""Manage a complete SWMM input sequence"""
def __init__(self):
"""Define the fields of a SWMM Project by creating an empty placeholder for each section"""
ProjectBase.__init__(self)
self.title = Title() # TITLE project title
self.options = General() # OPTIONS analysis options
self.report = Report() # REPORT output reporting instructions
self.files = Files() # FILES interface file options
self.backdrop = BackdropOptions(
) # BACKDROP bounding rectangle and file name of backdrop image
self.map = MapOptions(
) # MAP map's bounding rectangle and units
self.raingages = SectionAsList(
"[RAINGAGES]"
) # (list of RainGage) # RAINGAGES rain gage information
self.hydrographs = SectionAsList(
"[HYDROGRAPHS]") # (list of UnitHydrograph)
# unit hydrograph data used to construct RDII inflows
self.evaporation = Evaporation() # EVAPORATION evaporation data
self.temperature = Temperature(
) # TEMPERATURE air temperature and snow melt data
self.adjustments = Adjustments(
) # ADJUSTMENTS monthly climate adjustments
self.subcatchments = SectionAsList(
"[SUBCATCHMENTS]") # (list of Subcatchment)
# basic subcatchment information
# self.subareas = [Section] # SUBAREAS subcatchment impervious/pervious sub-area data
self.infiltration = SectionAsList("[INFILTRATION]") # (list of str)
# subcatchment infiltration parameters
self.lid_controls = SectionAsList(
"[LID_CONTROLS]") # (list of LIDControl)
# low impact development control information
self.lid_usage = SectionAsList("[LID_USAGE]") # (list of LIDUsage)
# assignment of LID controls to subcatchments
self.aquifers = SectionAsList("[AQUIFERS]") # (list of Aquifer)
# groundwater aquifer parameters
self.groundwater = SectionAsList(
"[GROUNDWATER]") # (list of Groundwater)
# subcatchment groundwater parameters
self.snowpacks = SectionAsList("[SNOWPACKS]") # (list of SnowPack)
# subcatchment snow pack parameters
self.junctions = SectionAsList("[JUNCTIONS]") # (list of Junction)
# junction node information
self.outfalls = SectionAsList("[OUTFALLS]") # (list of Outfall)
# outfall node information
self.dividers = SectionAsList("[DIVIDERS]") # (list of Divider)
# flow divider node information
self.storage = SectionAsList("[STORAGE]") # (list of StorageUnit)
# storage node information
self.conduits = SectionAsList("[CONDUITS]") # (list of Conduit)
# conduit link information
self.pumps = SectionAsList("[PUMPS]") # (list of Pump)
# pump link information
self.orifices = SectionAsList("[ORIFICES]") # (list of Orifice)
# orifice link information
self.weirs = SectionAsList("[WEIRS]") # (list of Weir)
# weir link information
self.outlets = SectionAsList("[OUTLETS]") # (list of Outlet)
# outlet link information
self.xsections = SectionAsList("[XSECTIONS]") # (list of CrossSection)
# conduit, orifice, and weir cross-section geometry
self.transects = Transects(
) # transect geometry for conduits with irregular cross-sections
self.controls = Controls()
# rules that control pump and regulator operation
self.events = SectionAsList("[EVENTS]") # (list of Events)
self.landuses = SectionAsList(
"[LANDUSES]") # (list of Landuse) # land use categories
self.buildup = SectionAsList("[BUILDUP]") # (list of Buildup)
# buildup functions for pollutants and land uses
self.washoff = SectionAsList("[WASHOFF]") # (list of Washoff)
# washoff functions for pollutants and land uses
self.pollutants = SectionAsList("[POLLUTANTS]") # (list of Pollutant)
# pollutant information
self.coverages = Coverages(
) # COVERAGES assignment of land uses to subcatchments
self.treatment = SectionAsList("[TREATMENT]") # (list of Treatment)
# pollutant removal functions at conveyance system nodes
self.inflows = SectionAsList("[INFLOWS]") # (list of DirectInflow)
# INFLOWS # external hydrograph/pollutograph inflow at nodes
self.dwf = SectionAsList("[DWF]") # (list of DryWeatherInflow)
# baseline dry weather sanitary inflow at nodes
self.patterns = SectionAsList("[PATTERNS]") # (list of Pattern)
# periodic variation in dry weather inflow
self.rdii = SectionAsList("[RDII]") # (list of RDIInflow)
# rainfall-dependent I/I information at nodes
self.loadings = InitialLoadings()
# initial pollutant loads on subcatchments
self.curves = SectionAsList("[CURVES]") # (list of Curve)
# CURVES x-y tabular data referenced in other sections
self.timeseries = SectionAsList("[TIMESERIES]") # (list of TimeSeries)
# time series data referenced in other sections
self.labels = SectionAsList("[LABELS]") # (list of Label)
# X, Y coordinates and text of labels
self.subcentroids = SectionAsList(
"[SUBCENTROIDS]") # (list of subcentroids)
# X, Y coordinates and text of subcentroids
self.sublinks = SectionAsList("[SUBLINKS]") # (list of sublinks)
# sublinks information
self.sections = [
self.title, self.options, self.evaporation, self.raingages,
self.subcatchments, self.infiltration, self.junctions,
self.dividers, self.storage, self.outfalls, self.conduits,
self.pumps, self.orifices, self.weirs, self.outlets,
self.xsections, self.landuses, self.coverages, self.pollutants,
self.timeseries, self.patterns, self.curves, self.dwf, self.rdii,
self.loadings, self.buildup, self.washoff, self.report,
self.events, self.files, self.backdrop, self.map, self.hydrographs,
self.temperature, self.adjustments, self.lid_controls,
self.lid_usage, self.aquifers, self.groundwater, self.snowpacks,
self.transects, self.controls, self.treatment, self.inflows,
self.labels, self.subcentroids, self.sublinks
] # Start with a sensible order of sections.
self.add_sections_from_attributes(
) # Add any sections not added in the line above, should not be any left.
def nodes_groups(self):
return [self.junctions, self.outfalls, self.dividers, self.storage]
def links_groups(self):
return [
self.conduits, self.pumps, self.orifices, self.weirs, self.outlets
]
@staticmethod
def get_dwf_label_text(pattern=None):
if pattern:
return u'"' + pattern.name + u'"'
else:
return u'""'
def set_pattern_object_references(self):
"""
setup node <-> pattern object reference
which can be used for handling pattern name changes
Returns:
"""
if self.inflows.value:
for obj_inflow in self.inflows.value:
obj_inflow.baseline_pattern_object = self.patterns.find_item(
obj_inflow.baseline_pattern)
if self.aquifers.value:
for obj_aquifer in self.aquifers.value:
obj_aquifer.upper_evaporation_pattern_object = \
self.patterns.find_item(obj_aquifer.upper_evaporation_pattern)
if self.dwf.value:
for obj_dwf in self.dwf.value:
del obj_dwf.time_pattern_objects[:]
# order of patterns should be kept intact
for i in range(0, len(obj_dwf.time_patterns)):
if obj_dwf.time_patterns[i]:
pat = self.patterns.find_item(
obj_dwf.time_patterns[i].strip("\""))
obj_dwf.time_pattern_objects.append(pat)
else:
obj_dwf.time_pattern_objects.append(None)
def refresh_pattern_object_references(self):
"""
refresh pattern object id references of various model objects
Returns:
"""
if self.inflows.value:
for obj_inflow in self.inflows.value:
if obj_inflow.baseline_pattern_object:
obj_inflow.baseline_pattern = obj_inflow.baseline_pattern_object.name
if self.aquifers.value:
for obj_aquifer in self.aquifers.value:
if obj_aquifer.upper_evaporation_pattern_object:
obj_aquifer.upper_evaporation_pattern = obj_aquifer.upper_evaporation_pattern_object.name
if self.dwf.value:
for obj_dwf in self.dwf.value:
del obj_dwf.time_patterns[:]
# order of patterns should be kept intact
for i in range(0, len(obj_dwf.time_pattern_objects)):
if obj_dwf.time_pattern_objects[i]:
# obj_dwf.time_patterns.append(u'"' + obj_dwf.time_pattern_objects[i].name + u'"')
obj_dwf.time_patterns.append(
self.get_dwf_label_text(
obj_dwf.time_pattern_objects[i]))
else:
obj_dwf.time_patterns.append(self.get_dwf_label_text())
def delete_pattern(self, pattern):
objects_with_pattern = {}
if self.inflows.value:
for obj_inflow in self.inflows.value:
if pattern in [obj_inflow.baseline_pattern_object]:
obj_inflow.baseline_pattern = ""
obj_inflow.baseline_pattern_object = None
objects_with_pattern[obj_inflow] = None
if self.aquifers.value:
for obj_aquifer in self.aquifers.value:
if pattern in [obj_aquifer.upper_evaporation_pattern_object]:
obj_aquifer.upper_evaporation_pattern = ""
obj_aquifer.upper_evaporation_pattern_object = None
objects_with_pattern[obj_aquifer] = None
if self.dwf.value:
for obj_dwf in self.dwf.value:
# del obj_dwf.time_patterns[:]
# order of patterns should be kept intact
if pattern in obj_dwf.time_pattern_objects:
objects_with_pattern[obj_dwf] = []
lbl_dwf_pattern = self.get_dwf_label_text(pattern)
for i in range(0, len(obj_dwf.time_patterns)):
if lbl_dwf_pattern.replace('"', '') in [
obj_dwf.time_patterns[i].replace('"', '')
]:
obj_dwf.time_patterns[i] = self.get_dwf_label_text(
)
obj_dwf.time_pattern_objects[i] = None
objects_with_pattern[obj_dwf].append(i)
return objects_with_pattern
def restore_pattern(self, objects_with_pattern, pattern):
for obj in objects_with_pattern.keys():
if self.inflows.value:
if obj in self.inflows.value:
obj.baseline_pattern = pattern.name
obj.baseline_pattern_object = pattern
if self.aquifers.value:
if obj in self.aquifers.value:
obj.upper_evaporation_pattern = pattern.name
obj.upper_evaporation_pattern_object = pattern
if self.dwf.value:
if obj in self.dwf.value:
for i in objects_with_pattern[obj]:
# order of patterns should be kept intact
if i < len(obj.time_patterns):
obj.time_pattern_objects[i] = pattern
obj.time_patterns[i] = self.get_dwf_label_text(
pattern)
class EpanetProject(ProjectBase):
"""Manage a complete EPANET input sequence"""
def __init__(self):
"""Initialize the sections of an EPANET input file.
Any sections not initialized here will be handled by the generic core.project_base.Section class."""
ProjectBase.__init__(self)
self.title = Title()
self.backdrop = BackdropOptions(
) # BACKDROP bounding rectangle and file name of backdrop image
self.map = MapOptions(
) # MAP map's bounding rectangle and units
self.junctions = SectionAsList("[JUNCTIONS]") # (list of Junction)
self.reservoirs = SectionAsList("[RESERVOIRS]") # (list of Reservoir)
self.tanks = SectionAsList("[TANKS]") # (list of Tank)
self.pipes = SectionAsList("[PIPES]") # (list of Pipe)
self.pumps = SectionAsList("[PUMPS]") # (list of Pump)
self.valves = SectionAsList("[VALVES]") # (list of Valve)
# self.emitters = [(Junction, "emitter_coefficient")]
self.patterns = SectionAsList("[PATTERNS]") # (list of Pattern)
self.curves = SectionAsList("[CURVES]") # (list of Curve)
self.energy = EnergyOptions()
self.status = SectionAsList("[STATUS]") # (list of Status)
self.controls = Control()
self.rules = Rule()
self.demands = SectionAsList("[DEMANDS]") # (list of Demand)
self.reactions = Reactions()
self.sources = SectionAsList("[SOURCES]") # (list of Source)
# self.options = MapOptions,
self.options = Options()
self.times = TimesOptions()
self.report = ReportOptions()
self.labels = SectionAsList("[LABELS]") # (list of Label)
self.backdrop = BackdropOptions()
self.calibrations = SectionAsList(
"[CALIBRATIONS]") # (list of Calibration)
self.sections = [
self.title, self.options, self.report, self.junctions, self.tanks,
self.reservoirs, self.pipes, self.pumps, self.valves,
self.controls, self.patterns, self.curves, self.backdrop, self.map,
self.labels
] # Start with a sensible order of sections.
self.add_sections_from_attributes(
) # Add any sections not added in the line above, should not be any left.
def nodes_groups(self):
return [self.junctions, self.reservoirs, self.tanks]
def links_groups(self):
return [self.pipes, self.pumps, self.valves]
def set_pattern_object_references(self):
"""
setup node <-> pattern object reference
which can be used for handling pattern name changes
Returns:
"""
if self.junctions.value:
for obj_junction in self.junctions.value:
obj_junction.demand_pattern_object = \
self.patterns.find_item(obj_junction.demand_pattern_name)
if self.reservoirs.value:
for obj_res in self.reservoirs.value:
obj_res.head_pattern_object = self.patterns.find_item(
obj_res.head_pattern_name)
if self.demands.value:
for obj_demand in self.demands.value:
obj_demand.demand_pattern_object = self.patterns.find_item(
obj_demand.demand_pattern)
if self.sources.value:
for obj_src in self.sources.value:
obj_src.pattern_object = self.patterns.find_item(
obj_src.pattern_name)
# self.options.hydraulics.default_pattern = "1"
self.options.hydraulics.default_pattern_object = \
self.patterns.find_item(self.options.hydraulics.default_pattern)
def refresh_pattern_object_references(self):
"""
refresh pattern object id references of various model objects
Returns:
"""
if self.junctions.value:
for obj_junction in self.junctions.value:
if obj_junction.demand_pattern_object:
obj_junction.demand_pattern_name = obj_junction.demand_pattern_object.name
if self.reservoirs.value:
for obj_res in self.reservoirs.value:
if obj_res.head_pattern_object:
obj_res.head_pattern_name = obj_res.head_pattern_object.name
if self.demands.value:
for obj_demand in self.demands.value:
if obj_demand.demand_pattern_object:
obj_demand.demand_pattern = obj_demand.demand_pattern_object.name
if self.sources.value:
for obj_src in self.sources.value:
if obj_src.pattern_object:
obj_src.pattern_name = obj_src.pattern_object.name
if self.options.hydraulics.default_pattern_object:
self.options.hydraulics.default_pattern = self.options.hydraulics.default_pattern_object.name
def delete_pattern(self, pattern):
objects_with_pattern = []
if self.junctions.value:
for obj_junction in self.junctions.value:
if pattern in [obj_junction.demand_pattern_object]:
obj_junction.demand_pattern_name = ""
obj_junction.demand_pattern_object = None
objects_with_pattern.append(obj_junction)
if self.reservoirs.value:
for obj_res in self.reservoirs.value:
if pattern in [obj_res.head_pattern_object]:
obj_res.head_pattern_name = ""
obj_res.head_pattern_object = None
objects_with_pattern.append(obj_res)
if self.demands.value:
for obj_demand in self.demands.value:
if pattern in [obj_demand.demand_pattern_object]:
obj_demand.demand_pattern = ""
obj_demand.demand_pattern_object = None
objects_with_pattern.append(obj_demand)
if self.sources.value:
for obj_src in self.sources.value:
if pattern in [obj_src.pattern_object]:
obj_src.pattern_name = ""
obj_src.pattern_object = None
objects_with_pattern.append(obj_src)
if self.options.hydraulics.default_pattern_object:
if pattern in [self.options.hydraulics.default_pattern_object]:
self.options.hydraulics.default_pattern = ""
self.options.hydraulics.default_pattern_object = None
objects_with_pattern.append(self.options.hydraulics)
return objects_with_pattern
def restore_pattern(self, objects_with_pattern, pattern):
for obj in objects_with_pattern:
if self.junctions.value:
if obj in self.junctions.value:
obj.demand_pattern_name = pattern.name
obj.demand_pattern_object = pattern
if self.reservoirs.value:
if obj in self.reservoirs.value:
obj.head_pattern_name = pattern.name
obj.head_pattern_object = pattern
if self.demands.value:
if obj in self.demands.value:
obj.demand_pattern = pattern.name
obj.demand_pattern_object = pattern
if self.sources.value:
if obj in self.sources.value:
obj.pattern_name = pattern.name
obj.pattern_object = pattern
if obj in [self.options.hydraulics.default_pattern_object]:
self.options.hydraulics.default_pattern = pattern.name
self.options.hydraulics.default_pattern_object = pattern
def __init__(self):
"""Initialize the sections of an EPANET input file.
Any sections not initialized here will be handled by the generic core.project_base.Section class."""
ProjectBase.__init__(self)
self.title = Title()
self.backdrop = BackdropOptions(
) # BACKDROP bounding rectangle and file name of backdrop image
self.map = MapOptions(
) # MAP map's bounding rectangle and units
self.junctions = SectionAsList("[JUNCTIONS]") # (list of Junction)
self.reservoirs = SectionAsList("[RESERVOIRS]") # (list of Reservoir)
self.tanks = SectionAsList("[TANKS]") # (list of Tank)
self.pipes = SectionAsList("[PIPES]") # (list of Pipe)
self.pumps = SectionAsList("[PUMPS]") # (list of Pump)
self.valves = SectionAsList("[VALVES]") # (list of Valve)
# self.emitters = [(Junction, "emitter_coefficient")]
self.patterns = SectionAsList("[PATTERNS]") # (list of Pattern)
self.curves = SectionAsList("[CURVES]") # (list of Curve)
self.energy = EnergyOptions()
self.status = SectionAsList("[STATUS]") # (list of Status)
self.controls = Control()
self.rules = Rule()
self.demands = SectionAsList("[DEMANDS]") # (list of Demand)
self.reactions = Reactions()
self.sources = SectionAsList("[SOURCES]") # (list of Source)
# self.options = MapOptions,
self.options = Options()
self.times = TimesOptions()
self.report = ReportOptions()
self.labels = SectionAsList("[LABELS]") # (list of Label)
self.backdrop = BackdropOptions()
self.calibrations = SectionAsList(
"[CALIBRATIONS]") # (list of Calibration)
self.sections = [
self.title, self.options, self.report, self.junctions, self.tanks,
self.reservoirs, self.pipes, self.pumps, self.valves,
self.controls, self.patterns, self.curves, self.backdrop, self.map,
self.labels
] # Start with a sensible order of sections.
self.add_sections_from_attributes(
) # Add any sections not added in the line above, should not be any left.
def __init__(self):
"""Initialize the sections of an EPANET input file.
Any sections not initialized here will be handled by the generic core.project_base.Section class."""
self.title = Title()
self.junctions = SectionAsList("[JUNCTIONS]") # (list of Junction)
self.reservoirs = SectionAsList("[RESERVOIRS]") # (list of Reservoir)
self.tanks = SectionAsList("[TANKS]") # (list of Tank)
self.pipes = SectionAsList("[PIPES]") # (list of Pipe)
self.pumps = SectionAsList("[PUMPS]") # (list of Pump)
self.valves = SectionAsList("[VALVES]") # (list of Valve)
# self.emitters = [(Junction, "emitter_coefficient")]
self.patterns = SectionAsList("[PATTERNS]") # (list of Pattern)
self.curves = SectionAsList("[CURVES]") # (list of Curve)
self.energy = EnergyOptions()
self.status = SectionAsList("[STATUS]") # (list of Status)
self.controls = Control()
self.rules = Rule()
self.demands = SectionAsList("[DEMANDS]") # (list of Demand)
self.reactions = Reactions()
self.sources = SectionAsList("[SOURCES]") # (list of Source)
# self.options = MapOptions,
self.options = Options()
self.times = TimesOptions()
self.report = ReportOptions()
self.labels = SectionAsList("[LABELS]") # (list of Label)
self.backdrop = BackdropOptions()
self.calibrations = SectionAsList(
"[CALIBRATIONS]") # (list of Calibration)
ProjectBase.__init__(
self
) # Do this after setting attributes so they will all get added to sections[]