def create_power_transformer_end(network: NetworkService, pt: PowerTransformer, t: Terminal, end_number: int = 0, **kwargs) -> PowerTransformerEnd:
en = end_number if end_number > 0 else t.sequence_number
te = PowerTransformerEnd(mrid=f"{pt.mrid}_e{en}", power_transformer=pt, terminal=t, end_number=en,
**kwargs)
pt.add_end(te)
network.add(te)
return te
def create_power_transformer_for_connecting(network: NetworkService, mrid: str = "", num_terms: int = 0, phases: PhaseCode = PhaseCode.ABCN,
num_usagepoints: int = 0, num_meters: int = 0, end_args: List[Dict] = None) -> PowerTransformer:
"""
`end_args` A list of dictionaries, each of which is passed to `create_power_transformer_end` for every terminal created. Possible kwargs are anything that
can be passed to the `PowerTransformerEnd` constructor. Keep in mind CIM recommends the HV end is first in the list.
"""
if not mrid:
mrid = CopyableUUID()
pt = PowerTransformer(mrid, name="test powertransformer")
terminals = create_terminals(network, pt, num_terms, phases)
for eargs, t in zip(end_args, terminals):
create_power_transformer_end(network, pt, t, **eargs)
for i in range(num_usagepoints):
up = UsagePoint(f"{mrid}-up{i}")
pt.add_usage_point(up)
up.add_equipment(pt)
for j in range(num_meters):
meter = create_meter(network, f"{mrid}-up{i}-m{j}")
up.add_end_device(meter)
meter.add_usage_point(up)
network.add(up)
network.add(pt)
return pt
async def feeder_network():
network_service = NetworkService()
source = create_source_for_connecting(network_service, "source", 1, PhaseCode.AB)
fcb = create_switch_for_connecting(network_service, "fcb", 2, PhaseCode.AB)
fsp = create_junction_for_connecting(network_service, "fsp", 2, PhaseCode.AB)
tx = create_power_transformer_for_connecting(network_service, "tx", 2, PhaseCode.AB, end_args=[{"rated_u": 22000}, {"rated_u": 415}])
c1 = create_acls_for_connecting(network_service, "c1", PhaseCode.AB)
c2 = create_acls_for_connecting(network_service, "c2", PhaseCode.AB)
sub = create_substation(network_service, "f", "f")
create_feeder(network_service, "f001", "f001", sub, fsp.get_terminal_by_sn(2))
add_location(network_service, source, 1.0, 1.0)
add_location(network_service, fcb, 1.0, 1.0)
add_location(network_service, fsp, 5.0, 1.0)
add_location(network_service, tx, 10.0, 2.0)
add_location(network_service, c1, 1.0, 1.0, 5.0, 1.0)
add_location(network_service, c2, 5.0, 1.0, 10.0, 2.0)
network_service.connect_terminals(source.get_terminal_by_sn(1), fcb.get_terminal_by_sn(1))
network_service.connect_terminals(fcb.get_terminal_by_sn(2), c1.get_terminal_by_sn(1))
network_service.connect_terminals(c1.get_terminal_by_sn(2), fsp.get_terminal_by_sn(1))
network_service.connect_terminals(fsp.get_terminal_by_sn(2), c2.get_terminal_by_sn(1))
network_service.connect_terminals(c2.get_terminal_by_sn(2), tx.get_terminal_by_sn(1))
await SetPhases().run(network_service)
await AssignToFeeders().run(network_service)
return network_service
def create_geographical_region(network: NetworkService, mrid: str = "", name: str = "") -> GeographicalRegion:
if not mrid:
mrid = CopyableUUID()
gr = GeographicalRegion(mrid, name=name)
network.add(gr)
return gr
async def main(argv):
feeder_mrid = ''
rpc_port = 50052
host = "localhost"
try:
opts, args = getopt.getopt(argv, "h:i:p:u:",
["mrid=", "port=", "host="])
except getopt.GetoptError:
print('get_feeder.py -i <feeder_mrid> -p <rpc_port> -u <host>')
sys.exit(2)
for opt, arg in opts:
if opt == '-h':
print('get_feeder.py -p <rpc_port> -i <feeder_mrid>')
sys.exit()
elif opt in ("-i", "--mrid"):
feeder_mrid = arg
elif opt in ("-p", "--port"):
rpc_port = arg
elif opt in ("-u", "--host"):
host = arg
async with connect_async(host=host, rpc_port=rpc_port) as channel:
service = NetworkService()
client = NetworkConsumerClient(channel)
result = (await client.get_feeder(service,
feeder_mrid)).throw_on_error()
print(feeder_mrid)
print(service.get(feeder_mrid))
print_feeder_eq(service)
def create_junction_for_connecting(network: NetworkService, mrid: str = "", num_terms: int = 0, phases: PhaseCode = PhaseCode.ABCN) -> Junction:
if not mrid:
mrid = CopyableUUID()
junction = Junction(mrid, name="test junction")
create_terminals(network, junction, num_terms, phases)
network.add(junction)
return junction
def create_energy_consumer_for_connecting(network: NetworkService, mrid: str = "", num_terms: int = 0, phases: PhaseCode = PhaseCode.ABCN) -> EnergyConsumer:
if not mrid:
mrid = CopyableUUID()
ec = EnergyConsumer(mrid, name=f"{mrid}-name")
create_terminals(network, ec, num_terms, phases)
network.add(ec)
return ec
def create_meter(network: NetworkService, id: str = "") -> Meter:
if not id:
id = CopyableUUID()
meter = Meter(id, name=f"companyMeterId{id}")
meter.add_organisation_role(create_asset_owner(network, f"company{id}"))
network.add(meter)
return meter
def run_feeder():
with connect(rpc_port=50052) as channel:
service = NetworkService()
client = SyncNetworkConsumerClient(channel=channel)
result = client.get_feeder(service, "PBH3A")
network = result.result
print(len(service._unresolved_references))
print(service.len_of())
def add_location(network: NetworkService, psr: PowerSystemResource, *coords: float):
"""
`coords` XY/longlats to use for the PositionPoint for this location. Must be an even number of coords.
:return:
"""
loc = Location()
for i in range(0, len(coords), 2):
loc.add_point(PositionPoint(coords[i], coords[i+1]))
psr.location = loc
network.add(loc)
def create_substation(network: NetworkService, mrid: str = "", name: str = "", sgr: SubGeographicalRegion = None) -> Substation:
if not mrid:
mrid = CopyableUUID()
sub = Substation(mrid, name=name, sub_geographical_region=sgr)
if sgr is not None:
sgr.add_substation(sub)
network.add(sub)
return sub
async def main():
async with connect_async(host="localhost", rpc_port=50052) as channel:
service = NetworkService()
client = NetworkConsumerClient(channel)
result = (await client.get_feeder(
service, '55832b20-0dd2-404e-bce6-61734a025d77')).throw_on_error()
print(service.get('55832b20-0dd2-404e-bce6-61734a025d77'))
for equip in service.objects(Equipment):
print(equip.mrid, equip.name)
def create_asset_owner(network: NetworkService, company: str, customer_service: Optional[CustomerService] = None) -> AssetOwner:
ao = AssetOwner(mrid=f"{company}-owner-role")
org = Organisation(mrid=company, name=company)
ao.organisation = org
network.add(org)
network.add(ao)
if customer_service is not None:
customer_service.add(org)
return ao
def create_subgeographical_region(network: NetworkService, mrid: str = "", name: str = "", gr: GeographicalRegion = None) -> SubGeographicalRegion:
if not mrid:
mrid = CopyableUUID()
sgr = SubGeographicalRegion(mrid, name=name)
if gr is not None:
sgr.geographical_region = gr
gr.add_sub_geographical_region(sgr)
network.add(sgr)
return sgr
def create_switch_for_connecting(network: NetworkService, mrid: str = "", num_terms: int = 0, phases: PhaseCode = PhaseCode.ABC, *phase_states: bool) -> Breaker:
if not mrid:
mrid = CopyableUUID()
cb = Breaker(mrid, name="test breaker")
create_terminals(network, cb, num_terms, phases)
for i, state in enumerate(phase_states):
cb.set_normally_open(state, phases.single_phases[i])
cb.set_open(state, phases.single_phases[i])
network.add(cb)
return cb
def create_feeder(network: NetworkService, mrid: str = "", name: str = "", sub: Substation = None, head_terminal: Terminal = None, *equipment_mrids: str) -> Feeder:
"""
`equipment_mrids` Equipment to fetch from the network and add to this feeder.
"""
feeder = Feeder(mrid, name=name, normal_head_terminal=head_terminal, normal_energizing_substation=sub)
sub.add_feeder(feeder)
network.add(feeder)
for mrid in equipment_mrids:
ce = network.get(mrid, ConductingEquipment)
ce.add_container(feeder)
feeder.add_equipment(ce)
return feeder
def create_source_for_connecting(network: NetworkService, mrid: str = "", num_terms: int = 0, phases: PhaseCode = PhaseCode.ABCN) -> EnergySource:
if not mrid:
mrid = CopyableUUID()
source = EnergySource(mrid)
for phase in phases.single_phases:
esp = EnergySourcePhase(energy_source=source, phase=phase)
source.add_phase(esp)
network.add(esp)
create_terminals(network, source, num_terms, phases)
network.add(source)
return source
def feeder_start_point_between_conductors_network():
network_service = NetworkService()
sub = create_substation(network_service)
c1 = create_acls_for_connecting(network_service, "c1", PhaseCode.A)
fsp = create_junction_for_connecting(network_service, "fsp", 2)
c2 = create_acls_for_connecting(network_service, "c2", PhaseCode.A)
network_service.connect_terminals(c1.get_terminal_by_sn(2), fsp.get_terminal_by_sn(1))
network_service.connect_terminals(c2.get_terminal_by_sn(1), fsp.get_terminal_by_sn(2))
create_feeder(network_service, "f", "f", sub, fsp.get_terminal_by_sn(2))
return network_service
def test_resolves_pole_streetlight():
ns = NetworkService()
pole = Pole()
streetlight = Streetlight(pole=pole)
pole.add_streetlight(streetlight)
br = resolver.streetlights(pole)
ns.resolve_or_defer_reference(br, streetlight.mrid)
assert streetlight.mrid in ns.get_unresolved_reference_mrids(br)
ns.add(streetlight)
assert len(list(ns.get_unresolved_reference_mrids(br))) == 0
streetlight_fetched = ns.get(streetlight.mrid)
assert streetlight == streetlight_fetched
async def _retrieve_network(
self) -> GrpcResult[Union[NetworkResult, Exception]]:
service = NetworkService()
result = (await self._get_network_hierarchy()).throw_on_error()
hierarchy: NetworkHierarchy = result.result
for mrid in hierarchy.geographical_regions.keys():
gr_result = await self._get_identified_object(service, mrid)
if gr_result.was_failure:
return gr_result
for mrid in hierarchy.sub_geographical_regions.keys():
sgr_result = await self._get_identified_object(service, mrid)
if sgr_result.was_failure:
return sgr_result
for mrid in hierarchy.substations.keys():
substation_result = await self._get_identified_object(
service, mrid)
if substation_result.was_failure:
return substation_result
for mrid in hierarchy.feeders.keys():
feeder_result = await self._get_identified_object(service, mrid)
if feeder_result.was_failure:
return feeder_result
failed = set()
while service.has_unresolved_references():
# we only want to break out if we've been trying to resolve the same set of references as we did in the last iteration.
# so if we didn't resolve anything in the last iteration (i.e, the number of unresolved refs didn't change) we keep a
# record of those mRIDs and break out of the loop if they don't change after another fetch.
failed = set()
for mrid in service.unresolved_mrids():
result = (await
self._get_identified_object(service,
mrid)).throw_on_error()
if result.was_failure or result.result is None:
failed.add(mrid)
if failed:
if failed == set(service.unresolved_mrids()):
return GrpcResult(NetworkResult(service, failed))
return GrpcResult(NetworkResult(service, failed))
def create_terminals(network: NetworkService, ce: ConductingEquipment, num_terms: int, phases: PhaseCode = PhaseCode.ABCN) -> List[Terminal]:
terms = []
for i in range(1, num_terms + 1):
term = Terminal(mrid=f"{ce.mrid}_t{i}", conducting_equipment=ce, phases=phases, sequence_number=i)
ce.add_terminal(term)
assert network.add(term)
terms.append(term)
return terms
async def test_retrieve_supported_types(self, networkidentifiedobjects):
network_service = NetworkService()
for nio in networkidentifiedobjects:
response = GetIdentifiedObjectsResponse(
objectGroup=IdentifiedObjectGroup(identifiedObject=nio))
stub = MagicMock(
**{"getIdentifiedObjects.return_value": [response]})
client = NetworkConsumerClient(stub=stub)
pbio = getattr(nio, nio.WhichOneof("identifiedObject"), None)
result = await client.get_identified_objects(
network_service, [pbio.mrid()])
assert result.was_successful
if pbio.mrid():
assert result.result.value[pbio.mrid(
)] is not None, f"type: {nio.WhichOneof('identifiedObject')} mrid: {pbio.mrid()}"
assert network_service.get(
pbio.mrid()) is result.result.value[pbio.mrid()]
else:
assert pbio.mrid() in result.result.failed
async def _get_feeder(self, service: NetworkService,
mrid: str) -> GrpcResult[MultiObjectResult]:
feeder_response = await self._get_identified_object(service, mrid)
if feeder_response.was_failure:
return feeder_response
feeder: Feeder = feeder_response.result
if not feeder:
return GrpcResult(result=None)
equipment_objects = await self._get_identified_objects(
service,
service.get_unresolved_reference_mrids(
resolver.ec_equipment(feeder)))
if equipment_objects.was_failure:
return equipment_objects
resolvers = list()
resolvers.append(resolver.normal_energizing_substation(feeder))
for equip in feeder.equipment:
try:
for terminal in equip.terminals:
resolvers.append(resolver.connectivity_node(terminal))
if isinstance(equip, Conductor):
resolvers.append(
resolver.per_length_sequence_impedance(equip))
resolvers.append(resolver.asset_info(equip))
except AttributeError:
pass # Not ConductingEquipment.
resolvers.append(resolver.psr_location(equip))
mrids = service.get_unresolved_reference_mrids(resolvers)
objects = await self._get_identified_objects(service, mrids)
if objects.was_failure:
return objects
objects.result.value.update(
equipment_objects.result.value) # Combine with previous results
objects.result.value[feeder.mrid] = feeder # Add feeder to result
return GrpcResult(result=MultiObjectResult(
objects.result.value,
objects.result.failed.union(equipment_objects.result.failed)))
def test_associated_terminal_tracker():
ns = NetworkService()
tracker = AssociatedTerminalTracker()
assert tracker.has_visited(None)
assert tracker.has_visited(Terminal())
assert not tracker.visit(None)
assert not tracker.visit(Terminal())
acls1 = create_acls_for_connecting(ns, "acls1")
t1 = acls1.get_terminal_by_sn(1)
assert not tracker.has_visited(t1)
assert tracker.visit(t1)
assert tracker.has_visited(t1)
async def _process_identified_objects(
self, service: NetworkService,
mrids: Iterable[str]) -> AsyncGenerator[IdentifiedObject, None]:
to_fetch = set()
existing = set()
for mrid in mrids:
try:
fetched = service.get(mrid)
existing.add((fetched, fetched.mrid))
except KeyError:
to_fetch.add(mrid)
responses = self._stub.getIdentifiedObjects(
GetIdentifiedObjectsRequest(mrids=to_fetch))
for response in responses:
og = response.objectGroup
yield extract_identified_object(service, og.identifiedObject)
for owned_obj in og.ownedIdentifiedObject:
yield extract_identified_object(service, owned_obj)
def create_acls_for_connecting(network: NetworkService, mrid: str = "", phases: PhaseCode = PhaseCode.ABCN, length: float = 0.0,
plsi_mrid: str = "perLengthSequenceImepedance",
wi_mrid: str = "wireInfo") -> AcLineSegment:
if not mrid:
mrid = CopyableUUID()
try:
plsi = network.get(plsi_mrid, PerLengthSequenceImpedance)
except KeyError:
plsi = PerLengthSequenceImpedance(plsi_mrid)
network.add(plsi)
try:
wi = network.get(wi_mrid, WireInfo)
except:
wi = WireInfo(wi_mrid)
network.add(wi)
acls = AcLineSegment(mrid, name=f"{mrid} name", per_length_sequence_impedance=plsi, asset_info=wi, length=length)
create_terminals(network, acls, 2, phases)
network.add(acls)
return acls
async def test_get_identifiedobject(self, aclinesegment):
network_service = NetworkService()
nio = NetworkIdentifiedObject(acLineSegment=aclinesegment)
response = GetIdentifiedObjectsResponse(
objectGroup=IdentifiedObjectGroup(identifiedObject=nio))
stub = MagicMock(**{"getIdentifiedObjects.return_value": [response]})
client = NetworkConsumerClient(stub=stub)
pbio = getattr(nio, nio.WhichOneof("identifiedObject"), None)
result = await client.get_identified_object(network_service,
pbio.mrid())
assert result.was_successful
assert result.result is not None
assert result.result.mrid == pbio.mrid()
stub = MagicMock(**{"getIdentifiedObjects.return_value": []})
client = NetworkConsumerClient(stub=stub)
pbio = getattr(nio, nio.WhichOneof("identifiedObject"), None)
result = await client.get_identified_object(network_service,
"fakemrid")
assert result.was_successful
assert result.result is None
def feeder_start_point_to_open_point_network(request):
normally_open = request.param[0]
currently_open = request.param[1]
network_service = NetworkService()
sub = create_substation(network_service)
fsp = create_junction_for_connecting(network_service, "fsp", 1)
c1 = create_acls_for_connecting(network_service, "c1", PhaseCode.A)
op = create_switch_for_connecting(network_service, "op", 2, PhaseCode.A)
c2 = create_acls_for_connecting(network_service, "c2", PhaseCode.A)
op.set_normally_open(normally_open)
op.set_open(currently_open)
network_service.connect_terminals(c1.get_terminal_by_sn(1), fsp.get_terminal_by_sn(1))
network_service.connect_terminals(c1.get_terminal_by_sn(2), op.get_terminal_by_sn(1))
network_service.connect_terminals(c2.get_terminal_by_sn(1), op.get_terminal_by_sn(2))
create_feeder(network_service, "f", "f", sub, fsp.get_terminal_by_sn(1))
return network_service
def create_feeder():
"""
Creates a small feeder based on https://bitbucket.org/zepben/cimdemo/src/master/lv_simple_net.png.
:return: A NetworkService representing the feeder.
"""
# Create the network. This will be used for sending all components of the feeder.
network = NetworkService()
# A network has multiple BaseVoltage's, each used to represent the intended nominal voltage of equipment operating
# on a segment of the network.
bv_11kv = BaseVoltage(mrid='11kv', nominal_voltage=11000, name='11kV')
# We must add the BaseVoltage to the network directly if any ConductingEquipment relies on it.
network.add(bv_11kv)
# There is no required order for adding equipment to the network, as long as its dependencies are satisfied.
# In this example, we will start with the main EnergySource, working towards the leaf nodes in the network
# in a depth-first traversal.
# Geographic coordinates and location details are stored as a Location against any type extending
# PowerSystemResource.
energy_source_loc = Location(mrid='es-loc')
energy_source_loc.add_point(PositionPoint(152.9100276,-31.43952262))
network.add(energy_source_loc)
# Create the EnergySource, specifying any desired parameters plus passing in our BaseVoltage, EnergySourcePhase's,
# Location, and Terminals. Note that terminals accepts a list of Terminals, however an EnergySource only has one.
energy_source = EnergySource(mrid='EnergySource',
name='Source',
base_voltage=bv_11kv,
voltage_magnitude=11000,
voltage_angle=0.0,
location=energy_source_loc)
# Note that all types extending IdentifiedObject take an mrid. If it is not provided, a UUID will be generated
# for you. We create a Terminal specifying its phase and connectivity_node. The ConnectivityNode will also
# receive a reference to the Terminal as part of the constructor.
es_t1 = Terminal(mrid='es-t1', phases=PhaseCode.ABC, conducting_equipment=energy_source)
# This is the starting ConnectivityNode in our network
# At a bare minimum, at least one connectivity node and one Terminal is required for an EnergySource to be
# connected to the network. Note however that the network will allow you to add disconnected equipment if that
# suits your use case.
# NetworkService.connect_by_mrid is a helper method that will create a ConnectivityNode in the NetworkService for
# the given mRID (in this case, SourceNode), and connect the passed in Terminal to it (es_t1).
# You should ensure you always call connect_by_mrid or connect_by_terminal, as this keeps the references between
# the ConnectivityNode and Terminal in sync.
network.connect_by_mrid(es_t1, "SourceNode")
# Any ConductingEquipment must have its terminals added to it before being utilised. This can be performed through
# the constructor via the terminals_ parameter, or added after initialisation like below. The Terminal must also
# have its conducting_equipment specified for add_terminal() to succeed.
energy_source.add_terminal(es_t1)
network.add(es_t1)
# An EnergySource has an EnergySourcePhase representing each phase it supplies. This is primarily used for tracing,
# however more attributes will be added at a later date.
es_phases = [EnergySourcePhase(mrid="esp1", energy_source=energy_source, phase=SinglePhaseKind.A),
EnergySourcePhase(mrid="esp2", energy_source=energy_source, phase=SinglePhaseKind.B),
EnergySourcePhase(mrid="esp3", energy_source=energy_source, phase=SinglePhaseKind.C)]
for phase in es_phases:
energy_source.add_phase(phase)
network.add(phase)
network.add(energy_source)
# Create the PowerTransformer
# Note BaseVoltage is not used for the PowerTransformer as it has two separate voltages. rated_u must be populated
# on both ends.
power_transformer = PowerTransformer(mrid="PowerTransformer", vector_group=VectorGroup.DYN11)
delta_pt_end = PowerTransformerEnd(mrid="delta-pt-end", rated_s=800000, rated_u=11000, connection_kind=WindingConnection.D, power_transformer=power_transformer)
delta_tap_changer = RatioTapChanger(mrid="rtc1", high_step=4, low_step=1, step=2.0, neutral_step=2, normal_step=2, step_voltage_increment=0.25, transformer_end=delta_pt_end)
delta_pt_end.ratio_tap_changer = delta_tap_changer
network.add(delta_tap_changer)
network.add(delta_pt_end)
wye_pt_end = PowerTransformerEnd(mrid="wye-pt-end", rated_s=800000, rated_u=416, connection_kind=WindingConnection.Yn, power_transformer=power_transformer)
wye_tap_changer = RatioTapChanger(mrid="rtc2", high_step=2, low_step=1, step=2.0, neutral_step=2, normal_step=2, step_voltage_increment=0.5, transformer_end=wye_pt_end)
wye_pt_end.ratio_tap_changer = wye_tap_changer
network.add(wye_tap_changer)
network.add(wye_pt_end)
# Terminals are required on the PowerTransformer, corresponding to each PowerTransformerEnd
# Note that ordering of the Terminals is significant, and must correspond with the ordering of the ends.
delta_terminal = Terminal(mrid='pt-t1', phases=PhaseCode.ABC, conducting_equipment=power_transformer)
# Connect the terminal to the source ConnectivityNode
network.connect_by_mrid(delta_terminal, 'SourceNode')
power_transformer.add_terminal(delta_terminal)
network.add(delta_terminal)
# Set the terminal on the Delta PowerTransformerEnd (This allows us to correlate the Terminal with the voltage)
delta_pt_end.terminal = delta_terminal
# The wye Terminal is connected to the Bus 0 ConnectivityNode
wye_terminal = Terminal(mrid='pt-t2', phases=PhaseCode.ABCN, conducting_equipment=power_transformer)
# Connect the terminal to the ConnectivityNode
network.connect_by_mrid(wye_terminal, 'Bus 0')
power_transformer.add_terminal(wye_terminal)
network.add(wye_terminal)
# Set the terminal on the WYE PowerTransformerEnd (This allows us to correlate the Terminal with the voltage)
wye_pt_end.terminal = wye_terminal
# Location
pt_loc = Location(mrid='pt-loc')
pt_loc.add_point(PositionPoint(152.9100276,-31.43952262))
power_transformer.location = pt_loc
network.add(pt_loc)
# Add the ends to the network
power_transformer.add_end(delta_pt_end)
power_transformer.add_end(wye_pt_end)
# Add the PowerTransformer to the network
network.add(power_transformer)
# Create the Breaker. It requires a new BaseVoltage of 416V
# Note Breaker constructor defaults all switch states to CLOSED.
bv_416v = BaseVoltage(mrid="416v", nominal_voltage=416, name="0.416kV")
network.add(bv_416v)
# Create a location for the Breaker
breaker_loc = Location(mrid='breaker-loc')
breaker_loc.add_point(PositionPoint(152.9100276,-31.43952262))
network.add(breaker_loc)
breaker = Breaker(mrid="Breaker", base_voltage=bv_416v, location=breaker_loc)
t1 = Terminal(mrid='br-t1', phases=PhaseCode.ABCN, conducting_equipment=breaker)
network.connect_by_mrid(t1, 'Bus 0')
breaker.add_terminal(t1)
network.add(t1)
t2 = Terminal(mrid='br-t2', phases=PhaseCode.ABCN, conducting_equipment=breaker)
network.connect_by_mrid(t2, 'Bus 1')
breaker.add_terminal(t2)
network.add(t2)
# Add the Breaker to the network
network.add(breaker)
# Create first AcLineSegment with a PerLengthSequenceImpedance and Location with two position_points
# The properties of the conductor are contained in a PerLengthSequenceImpedance. All amounts are per metre.
plsi_1 = PerLengthSequenceImpedance(mrid="4c_70", r=466.0, x=71.0, r0=1505.0, x0=83.0)
network.add(plsi_1)
# A line typically has two longlats representing each terminal point. Note these must be added in order and
# correspond to the matching Terminal.
acls1_loc = Location(mrid="acls1-loc")
acls1_loc.add_point(PositionPoint(152.9144265,-31.43913816))
acls1_loc.add_point(PositionPoint(152.910199,-31.439523))
network.add(acls1_loc)
acls1 = AcLineSegment(mrid="acls1",name="acls1",
base_voltage=bv_416v,
length=31.71938,
per_length_sequence_impedance=plsi_1,
location=acls1_loc)
# Create and add the Terminal's for this ACLS
acls1_t1 = Terminal(mrid='acls1-t1', phases=PhaseCode.ABCN, conducting_equipment=acls1)
network.connect_by_mrid(acls1_t1, "Bus 1")
acls1.add_terminal(acls1_t1)
network.add(acls1_t1)
acls1_t2 = Terminal(mrid='acls1-t2', phases=PhaseCode.ABCN, conducting_equipment=acls1)
network.connect_by_mrid(acls1_t2, "Bus 25")
acls1.add_terminal(acls1_t2)
network.add(acls1_t2)
# Add the ACLS to the network after adding all its dependencies
network.add(acls1)
# Create the rest of the lines. These are all quite similar to above.
create_lines(network, bv_416v, "Bus 25", plsi_1)
# Create first EnergyConsumer on 230V with a single phase
bv_230v = BaseVoltage(mrid="230v", nominal_voltage=230, name="0.23kV")
network.add(bv_230v)
# Each EnergyConsumer has a list of phases it is connected on. These are optional and only used to
# specify additional properties per phase when they are known.
ecp = [EnergyConsumerPhase(mrid='ecp1', phase=SinglePhaseKind.A, p_fixed=800.0, q_fixed=200.0)]
network.add(ecp[0])
# Creaote the EnergyConsumer's Location
ec1_loc = Location(mrid="ec1-loc")
ec1_loc.add_point(PositionPoint(152.9172589,-31.44307421))
network.add(ec1_loc)
energy_consumer1 = EnergyConsumer(mrid="EnergyConsumer1",
p=1000,
q=334.27413609633844,
name="Load 1",
phase_connection=PhaseShuntConnectionKind.Y,
energy_consumer_phases=ecp,
base_voltage=bv_230v,
location=ec1_loc)
# Create and add the Terminal, Note that the ConnectivityNode will be retrieved from the network (Bus 34 was created in create_lines())
ec1_t1 = Terminal(mrid='ec1-t1', phases=PhaseCode.A, conducting_equipment=energy_consumer1)
network.connect_by_mrid(ec1_t1, "Bus 34")
energy_consumer1.add_terminal(ec1_t1)
network.add(ec1_t1)
# Add the energy consumer to the network
network.add(energy_consumer1)
# Create PV EnergySource with a single phase and a location
esp = [EnergySourcePhase(mrid='esp4', phase=SinglePhaseKind.A)]
network.add(esp[0])
es2_loc = Location(mrid="es2-loc")
es2_loc.add_point(PositionPoint(152.9172589,-31.44307421))
network.add(es2_loc)
energy_source_pv = EnergySource(mrid="PV-DG",
name='PV Distributed Generator',
base_voltage=bv_230v,
voltage_magnitude=416,
voltage_angle=9.0,
energy_source_phases=esp,
location=es2_loc)
es2_t1 = Terminal(mrid='es2-t1', phases=PhaseCode.A, conducting_equipment=energy_source_pv)
network.connect_by_mrid(es2_t1, "Bus 34")
energy_source_pv.add_terminal(es2_t1)
network.add(es2_t1)
# Add the EnergySource to the network.
network.add(energy_source_pv)
# Create second EnergyConsumer with a single phase of B and a Location.
ecp = [EnergyConsumerPhase(mrid="ecp2", phase=SinglePhaseKind.B, p_fixed=800.0, q_fixed=200.0)]
network.add(ecp[0])
ec2_loc = Location(mrid="ec2-loc")
ec2_loc.add_point(PositionPoint(152.9121734,-31.44320236))
network.add(ec2_loc)
energy_consumer2 = EnergyConsumer(mrid="EnergyConsumer2",
p=1000,
q=334.27413609633844,
name="Load 2",
phase_connection=PhaseShuntConnectionKind.Y,
energy_consumer_phases=ecp,
base_voltage=bv_230v,
location=ec2_loc)
# Create and connect the Terminal.
ec2_t1 = Terminal(mrid='ec2-t1', phases=PhaseCode.B, conducting_equipment=energy_consumer2)
network.connect_by_mrid(ec2_t1, "Bus 47")
energy_consumer2.add_terminal(ec2_t1)
network.add(ec2_t1)
# Add the EnergyConsumer to the network
network.add(energy_consumer2)
# Create third EnergyConsumer with a single phase A and a Location.
ecp = [EnergyConsumerPhase(mrid="ecp3", phase=SinglePhaseKind.A, p_fixed=800.0, q_fixed=200.0)]
network.add(ecp[0])
ec3_loc = Location(mrid="ec3-loc", position_points=[PositionPoint(152.9151775,-31.43624552)])
network.add(ec3_loc)
energy_consumer3 = EnergyConsumer(mrid="EnergyConsumer3",
p=1000,
q=334.27413609633844,
name="Load 3",
phase_connection=PhaseShuntConnectionKind.Y,
energy_consumer_phases=ecp,
base_voltage=bv_230v,
location=ec3_loc)
ec3_t1 = Terminal(mrid='ec3-t1', phases=PhaseCode.A, conducting_equipment=energy_consumer3)
network.connect_by_mrid(ec3_t1, "Bus 70")
energy_consumer3.add_terminal(ec3_t1)
network.add(ec3_t1)
# Add the last energy consumer to the network
network.add(energy_consumer3)
# Our network is complete and connected. Next we must send it.
return network
def basic_network_hierarchy():
service = NetworkService()
feeder = Feeder(name="basic-feeder")
create_switch_for_connecting(service, "test_breaker", 2, PhaseCode.ABCN, True, True, True, True)
