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7 Commits

Author SHA1 Message Date
Codex Agent
14adf86e7f Prevent duplicate generator panel and fix aux defaults 2025-11-22 23:29:18 +01:00
Codex Agent
92857a27a0 Show generator battery output and slow idle drain 2025-11-22 23:23:06 +01:00
Codex Agent
5d62ea29b6 Show secondary outlet target temperature 2025-11-22 23:19:09 +01:00
Codex Agent
60c5e68ac4 Adjust pump statuses for power loss and add nominal displays 2025-11-22 23:17:06 +01:00
Codex Agent
d6655a7984 Add power stats and generator control visibility 2025-11-22 23:09:39 +01:00
Codex Agent
67436d795d Relax turbine status threshold 2025-11-22 23:06:02 +01:00
Codex Agent
14182e9db6 Clamp turbine spin-down status to OFF when near zero 2025-11-22 23:04:40 +01:00
6 changed files with 104 additions and 40 deletions

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@@ -25,6 +25,10 @@ GENERATOR_SPOOL_TIME = 10.0 # seconds to reach full output
# Auxiliary power assumptions # Auxiliary power assumptions
PUMP_POWER_MW = 12.0 # MW draw per pump unit PUMP_POWER_MW = 12.0 # MW draw per pump unit
BASE_AUX_LOAD_MW = 5.0 # control, instrumentation, misc. BASE_AUX_LOAD_MW = 5.0 # control, instrumentation, misc.
NORMAL_CORE_POWER_MW = 3_000.0
TEST_MAX_POWER_MW = 4_000.0
PRIMARY_OUTLET_TARGET_K = 580.0
SECONDARY_OUTLET_TARGET_K = 520.0
# Threshold inventories (event counts) for flagging common poisons in diagnostics. # Threshold inventories (event counts) for flagging common poisons in diagnostics.
KEY_POISON_THRESHOLDS = { KEY_POISON_THRESHOLDS = {
"Xe": 1e20, # xenon "Xe": 1e20, # xenon

View File

@@ -345,8 +345,14 @@ class ReactorDashboard:
left_y, left_y,
"Core", "Core",
[ [
("Fuel Temp", f"{state.core.fuel_temperature:8.1f} K"), (
("Core Power", f"{state.core.power_output_mw:8.1f} MW"), "Fuel Temp",
f"{state.core.fuel_temperature:6.1f} K (Max {constants.CORE_MELTDOWN_TEMPERATURE:4.0f})",
),
(
"Core Power",
f"{state.core.power_output_mw:6.1f} MW (Nom {constants.NORMAL_CORE_POWER_MW:4.0f}/Max {constants.TEST_MAX_POWER_MW:4.0f})",
),
("Neutron Flux", f"{state.core.neutron_flux:10.2e}"), ("Neutron Flux", f"{state.core.neutron_flux:10.2e}"),
("Rods", f"{self.reactor.control.rod_fraction:.3f}"), ("Rods", f"{self.reactor.control.rod_fraction:.3f}"),
("Rod Mode", "AUTO" if not self.reactor.control.manual_control else "MANUAL"), ("Rod Mode", "AUTO" if not self.reactor.control.manual_control else "MANUAL"),
@@ -362,10 +368,13 @@ class ReactorDashboard:
[ [
("Pump1", self._pump_status(state.primary_pumps, 0)), ("Pump1", self._pump_status(state.primary_pumps, 0)),
("Pump2", self._pump_status(state.primary_pumps, 1)), ("Pump2", self._pump_status(state.primary_pumps, 1)),
("Flow", f"{state.primary_loop.mass_flow_rate:7.0f} kg/s"), (
"Flow",
f"{state.primary_loop.mass_flow_rate:7.0f}/{self.reactor.primary_pump.nominal_flow * len(self.reactor.primary_pump_units):.0f} kg/s",
),
("Inlet Temp", f"{state.primary_loop.temperature_in:7.1f} K"), ("Inlet Temp", f"{state.primary_loop.temperature_in:7.1f} K"),
("Outlet Temp", f"{state.primary_loop.temperature_out:7.1f} K"), ("Outlet Temp", f"{state.primary_loop.temperature_out:7.1f} K (Target {constants.PRIMARY_OUTLET_TARGET_K:4.0f})"),
("Pressure", f"{state.primary_loop.pressure:5.2f} MPa"), ("Pressure", f"{state.primary_loop.pressure:5.2f}/{constants.MAX_PRESSURE:4.1f} MPa"),
], ],
) )
self._draw_section( self._draw_section(
@@ -375,10 +384,14 @@ class ReactorDashboard:
[ [
("Pump1", self._pump_status(state.secondary_pumps, 0)), ("Pump1", self._pump_status(state.secondary_pumps, 0)),
("Pump2", self._pump_status(state.secondary_pumps, 1)), ("Pump2", self._pump_status(state.secondary_pumps, 1)),
("Flow", f"{state.secondary_loop.mass_flow_rate:7.0f} kg/s"), (
("Inlet Temp", f"{state.secondary_loop.temperature_in:7.1f} K"), "Flow",
("Pressure", f"{state.secondary_loop.pressure:5.2f} MPa"), f"{state.secondary_loop.mass_flow_rate:7.0f}/{self.reactor.secondary_pump.nominal_flow * len(self.reactor.secondary_pump_units):.0f} kg/s",
("Steam Quality", f"{state.secondary_loop.steam_quality:5.2f}"), ),
("Inlet Temp", f"{state.secondary_loop.temperature_in:7.1f} K (Target {constants.PRIMARY_OUTLET_TARGET_K:4.0f})"),
("Outlet Temp", f"{state.secondary_loop.temperature_out:7.1f} K (Target {constants.SECONDARY_OUTLET_TARGET_K:4.0f})"),
("Pressure", f"{state.secondary_loop.pressure:5.2f}/{constants.MAX_PRESSURE:4.1f} MPa"),
("Steam Quality", f"{state.secondary_loop.steam_quality:5.2f}/1.00"),
], ],
) )
@@ -394,6 +407,7 @@ class ReactorDashboard:
"Turbine / Grid", "Turbine / Grid",
[ [
("Turbines", " ".join(self._turbine_status_lines())), ("Turbines", " ".join(self._turbine_status_lines())),
("Rated Elec", f"{len(self.reactor.turbines)*self.reactor.turbines[0].rated_output_mw:7.1f} MW"),
("Unit1 Elec", f"{state.turbines[0].electrical_output_mw:7.1f} MW" if state.turbines else "n/a"), ("Unit1 Elec", f"{state.turbines[0].electrical_output_mw:7.1f} MW" if state.turbines else "n/a"),
( (
"Unit2 Elec", "Unit2 Elec",
@@ -410,6 +424,7 @@ class ReactorDashboard:
], ],
) )
right_y = self._draw_section(right_win, right_y, "Generators", self._generator_lines(state)) right_y = self._draw_section(right_win, right_y, "Generators", self._generator_lines(state))
right_y = self._draw_section(right_win, right_y, "Power Stats", self._power_lines(state))
right_y = self._draw_section(right_win, right_y, "Maintenance", self._maintenance_lines()) right_y = self._draw_section(right_win, right_y, "Maintenance", self._maintenance_lines())
self._draw_health_bars(right_win, right_y) self._draw_health_bars(right_win, right_y)
@@ -548,8 +563,23 @@ class ReactorDashboard:
for idx, gen in enumerate(state.generators): for idx, gen in enumerate(state.generators):
status = "RUN" if gen.running else "START" if gen.starting else "OFF" status = "RUN" if gen.running else "START" if gen.starting else "OFF"
spool = f" spool {gen.spool_remaining:4.1f}s" if gen.starting else "" spool = f" spool {gen.spool_remaining:4.1f}s" if gen.starting else ""
lines.append((f"Gen{idx + 1}", f"{status} {gen.power_output_mw:6.1f} MW{spool}")) lines.append((f"Gen{idx + 1}", f"{status} {gen.power_output_mw:6.1f}/{self.reactor.generators[idx].rated_output_mw:4.0f} MW{spool}"))
lines.append((f" Battery", f"{gen.battery_charge*100:5.1f}%")) lines.append((f" Battery", f"{gen.battery_charge*100:5.1f}% out {gen.battery_output_mw:4.1f} MW"))
return lines
def _power_lines(self, state: PlantState) -> list[tuple[str, str]]:
draws = getattr(state, "aux_draws", {}) or {}
primary_nom = constants.PUMP_POWER_MW * len(self.reactor.primary_pump_units)
secondary_nom = constants.PUMP_POWER_MW * len(self.reactor.secondary_pump_units)
lines = [
("Base Aux", f"{draws.get('base', 0.0):6.1f}/{constants.BASE_AUX_LOAD_MW:4.1f} MW"),
("Primary Aux", f"{draws.get('primary_pumps', 0.0):6.1f}/{primary_nom:4.1f} MW"),
("Secondary Aux", f"{draws.get('secondary_pumps', 0.0):6.1f}/{secondary_nom:4.1f} MW"),
("Aux Demand", f"{draws.get('total_demand', 0.0):6.1f} MW"),
("Aux Supplied", f"{draws.get('supplied', 0.0):6.1f} MW"),
("Gen Output", f"{draws.get('generator_output', 0.0):6.1f} MW"),
("Turbine Elec", f"{draws.get('turbine_output', 0.0):6.1f} MW"),
]
return lines return lines
def _draw_health_bars(self, win: "curses._CursesWindow", start_y: int) -> int: def _draw_health_bars(self, win: "curses._CursesWindow", start_y: int) -> int:

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@@ -18,6 +18,7 @@ class GeneratorState:
power_output_mw: float power_output_mw: float
battery_charge: float battery_charge: float
status: str = "OFF" status: str = "OFF"
battery_output_mw: float = 0.0
@dataclass @dataclass
@@ -48,9 +49,11 @@ class DieselGenerator:
def step(self, state: GeneratorState, load_demand_mw: float, dt: float) -> float: def step(self, state: GeneratorState, load_demand_mw: float, dt: float) -> float:
"""Advance generator dynamics and return delivered power.""" """Advance generator dynamics and return delivered power."""
state.battery_output_mw = 0.0
if state.starting: if state.starting:
state.spool_remaining = max(0.0, state.spool_remaining - dt) state.spool_remaining = max(0.0, state.spool_remaining - dt)
state.power_output_mw = self.rated_output_mw * (1.0 - state.spool_remaining / max(self.spool_time, 1e-6)) state.power_output_mw = self.rated_output_mw * (1.0 - state.spool_remaining / max(self.spool_time, 1e-6))
state.battery_output_mw = min(0.5, load_demand_mw)
if state.spool_remaining <= 0.0: if state.spool_remaining <= 0.0:
state.starting = False state.starting = False
state.running = True state.running = True
@@ -67,8 +70,8 @@ class DieselGenerator:
if state.running: if state.running:
state.battery_charge = min(1.0, state.battery_charge + 0.02 * dt) state.battery_charge = min(1.0, state.battery_charge + 0.02 * dt)
elif state.starting: elif state.starting:
state.battery_charge = max(0.0, state.battery_charge - 0.01 * dt) state.battery_charge = max(0.0, state.battery_charge - 0.003 * dt)
else: else:
state.battery_charge = max(0.0, state.battery_charge - 0.001 * dt) state.battery_charge = max(0.0, state.battery_charge - 0.00005 * dt)
return state.power_output_mw return state.power_output_mw

View File

@@ -44,7 +44,7 @@ class Reactor:
turbine_unit_active: list[bool] = field(default_factory=lambda: [True, True, True]) turbine_unit_active: list[bool] = field(default_factory=lambda: [True, True, True])
shutdown: bool = False shutdown: bool = False
meltdown: bool = False meltdown: bool = False
generator_auto: bool = True generator_auto: bool = False
poison_alerts: set[str] = field(default_factory=set) poison_alerts: set[str] = field(default_factory=set)
maintenance_active: set[str] = field(default_factory=set) maintenance_active: set[str] = field(default_factory=set)
@@ -95,6 +95,7 @@ class Reactor:
self.control.rod_fraction = 0.95 self.control.rod_fraction = 0.95
self.shutdown = True self.shutdown = True
self.meltdown = False self.meltdown = False
self.generator_auto = False
self.primary_pump_active = False self.primary_pump_active = False
self.secondary_pump_active = False self.secondary_pump_active = False
self.primary_pump_units = [False] * len(self.primary_pump_units) self.primary_pump_units = [False] * len(self.primary_pump_units)
@@ -201,15 +202,27 @@ class Reactor:
self.secondary_pump_active and idx < len(self.secondary_pump_units) and self.secondary_pump_units[idx] self.secondary_pump_active and idx < len(self.secondary_pump_units) and self.secondary_pump_units[idx]
for idx in range(2) for idx in range(2)
] ]
aux_demand = constants.BASE_AUX_LOAD_MW + constants.PUMP_POWER_MW * ( any_units = any(primary_units_active) or any(secondary_units_active) or any(self.turbine_unit_active)
sum(primary_units_active) + sum(secondary_units_active) any_generators = any(getattr(g, "running", False) or getattr(g, "starting", False) for g in state.generators)
) aux_base = 0.0 if (self.shutdown and not any_units and not any_generators) else constants.BASE_AUX_LOAD_MW
aux_pump_primary = constants.PUMP_POWER_MW * sum(primary_units_active)
aux_pump_secondary = constants.PUMP_POWER_MW * sum(secondary_units_active)
aux_demand = aux_base + aux_pump_primary + aux_pump_secondary
turbine_electrical = state.total_electrical_output() turbine_electrical = state.total_electrical_output()
generator_power = self._step_generators(state, aux_demand, turbine_electrical, dt) generator_power = self._step_generators(state, aux_demand, turbine_electrical, dt)
aux_available = turbine_electrical + generator_power aux_available = turbine_electrical + generator_power
power_ratio = 1.0 if aux_demand <= 0 else min(1.0, aux_available / aux_demand) power_ratio = 1.0 if aux_demand <= 0 else min(1.0, aux_available / aux_demand)
if aux_demand > 0 and aux_available < 0.5 * aux_demand: if aux_demand > 0 and aux_available < 0.5 * aux_demand:
LOGGER.warning("Aux power deficit: available %.1f/%.1f MW", aux_available, aux_demand) LOGGER.warning("Aux power deficit: available %.1f/%.1f MW", aux_available, aux_demand)
state.aux_draws = {
"base": aux_base * power_ratio,
"primary_pumps": aux_pump_primary * power_ratio,
"secondary_pumps": aux_pump_secondary * power_ratio,
"total_demand": aux_demand,
"supplied": aux_available,
"generator_output": generator_power,
"turbine_output": turbine_electrical,
}
if self.primary_pump_active: if self.primary_pump_active:
total_flow = 0.0 total_flow = 0.0
@@ -220,23 +233,25 @@ class Reactor:
unit_enabled = ( unit_enabled = (
self.primary_pump_active and idx < len(self.primary_pump_units) and self.primary_pump_units[idx] self.primary_pump_active and idx < len(self.primary_pump_units) and self.primary_pump_units[idx]
) )
powered = power_ratio > 0.1
desired_flow = target_flow if unit_enabled else 0.0 desired_flow = target_flow if unit_enabled else 0.0
desired_pressure = target_pressure if unit_enabled else 0.5 desired_pressure = target_pressure if unit_enabled else 0.5
if not powered:
desired_flow = 0.0
desired_pressure = 0.5
pump_state.flow_rate = self._ramp_value( pump_state.flow_rate = self._ramp_value(
pump_state.flow_rate, desired_flow, dt, self.primary_pump.spool_time pump_state.flow_rate, desired_flow, dt, self.primary_pump.spool_time
) )
pump_state.pressure = self._ramp_value( pump_state.pressure = self._ramp_value(
pump_state.pressure, desired_pressure, dt, self.primary_pump.spool_time pump_state.pressure, desired_pressure, dt, self.primary_pump.spool_time
) )
pump_state.active = (unit_enabled and power_ratio > 0.05) or pump_state.flow_rate > 1.0 pump_state.active = unit_enabled and powered and pump_state.flow_rate > 1.0
if unit_enabled and pump_state.flow_rate < max(1.0, desired_flow * 0.8): if not powered or not unit_enabled:
pump_state.status = "STOPPING" if pump_state.flow_rate > 1.0 else "OFF"
elif pump_state.flow_rate < max(1.0, desired_flow * 0.8):
pump_state.status = "STARTING" pump_state.status = "STARTING"
elif not unit_enabled and pump_state.flow_rate > 1.0:
pump_state.status = "STOPPING"
elif pump_state.active:
pump_state.status = "RUN"
else: else:
pump_state.status = "OFF" pump_state.status = "RUN"
total_flow += pump_state.flow_rate total_flow += pump_state.flow_rate
loop_pressure = max(loop_pressure, pump_state.pressure) loop_pressure = max(loop_pressure, pump_state.pressure)
state.primary_loop.mass_flow_rate = total_flow state.primary_loop.mass_flow_rate = total_flow
@@ -263,28 +278,30 @@ class Reactor:
total_flow = 0.0 total_flow = 0.0
target_pressure = 12.0 * 0.75 + 2.0 target_pressure = 12.0 * 0.75 + 2.0
loop_pressure = 0.5 loop_pressure = 0.5
target_flow = self.secondary_pump.flow_rate(0.75) target_flow = self.secondary_pump.flow_rate(0.75) * power_ratio
for idx, pump_state in enumerate(state.secondary_pumps): for idx, pump_state in enumerate(state.secondary_pumps):
unit_enabled = ( unit_enabled = (
self.secondary_pump_active and idx < len(self.secondary_pump_units) and self.secondary_pump_units[idx] self.secondary_pump_active and idx < len(self.secondary_pump_units) and self.secondary_pump_units[idx]
) )
powered = power_ratio > 0.1
desired_flow = target_flow if unit_enabled else 0.0 desired_flow = target_flow if unit_enabled else 0.0
desired_pressure = target_pressure if unit_enabled else 0.5 desired_pressure = target_pressure if unit_enabled else 0.5
if not powered:
desired_flow = 0.0
desired_pressure = 0.5
pump_state.flow_rate = self._ramp_value( pump_state.flow_rate = self._ramp_value(
pump_state.flow_rate, desired_flow, dt, self.secondary_pump.spool_time pump_state.flow_rate, desired_flow, dt, self.secondary_pump.spool_time
) )
pump_state.pressure = self._ramp_value( pump_state.pressure = self._ramp_value(
pump_state.pressure, desired_pressure, dt, self.secondary_pump.spool_time pump_state.pressure, desired_pressure, dt, self.secondary_pump.spool_time
) )
pump_state.active = unit_enabled or pump_state.flow_rate > 1.0 pump_state.active = unit_enabled and powered and pump_state.flow_rate > 1.0
if unit_enabled and pump_state.flow_rate < max(1.0, desired_flow * 0.8): if not powered or not unit_enabled:
pump_state.status = "STOPPING" if pump_state.flow_rate > 1.0 else "OFF"
elif pump_state.flow_rate < max(1.0, desired_flow * 0.8):
pump_state.status = "STARTING" pump_state.status = "STARTING"
elif not unit_enabled and pump_state.flow_rate > 1.0:
pump_state.status = "STOPPING"
elif pump_state.active:
pump_state.status = "RUN"
else: else:
pump_state.status = "OFF" pump_state.status = "RUN"
total_flow += pump_state.flow_rate total_flow += pump_state.flow_rate
loop_pressure = max(loop_pressure, pump_state.pressure) loop_pressure = max(loop_pressure, pump_state.pressure)
state.secondary_loop.mass_flow_rate = total_flow state.secondary_loop.mass_flow_rate = total_flow
@@ -365,13 +382,13 @@ class Reactor:
turbine.step(state.secondary_loop, turbine_state, steam_power_mw=power_per_unit, dt=dt) turbine.step(state.secondary_loop, turbine_state, steam_power_mw=power_per_unit, dt=dt)
if power_per_unit <= 0.0 and turbine_state.electrical_output_mw < 0.1: if power_per_unit <= 0.0 and turbine_state.electrical_output_mw < 0.1:
turbine_state.status = "OFF" turbine_state.status = "OFF"
elif turbine_state.electrical_output_mw < max(0.5, power_per_unit * 0.5): elif turbine_state.electrical_output_mw < max(0.1 * turbine.rated_output_mw, 1.0):
turbine_state.status = "STARTING" turbine_state.status = "STARTING"
else: else:
turbine_state.status = "RUN" turbine_state.status = "RUN"
else: else:
self._spin_down_turbine(turbine_state, dt, turbine.spool_time) self._spin_down_turbine(turbine_state, dt, turbine.spool_time)
turbine_state.status = "STOPPING" if turbine_state.electrical_output_mw > 0 else "OFF" turbine_state.status = "STOPPING" if turbine_state.electrical_output_mw > 0.1 else "OFF"
self._dispatch_consumer_load(state, active_indices) self._dispatch_consumer_load(state, active_indices)
def _reset_turbine_state(self, turbine_state: TurbineState) -> None: def _reset_turbine_state(self, turbine_state: TurbineState) -> None:
@@ -397,6 +414,8 @@ class Reactor:
turbine_state.load_supplied_mw = self._ramp_value( turbine_state.load_supplied_mw = self._ramp_value(
turbine_state.load_supplied_mw, 0.0, dt, time_constant turbine_state.load_supplied_mw, 0.0, dt, time_constant
) )
if turbine_state.electrical_output_mw < 0.1:
turbine_state.electrical_output_mw = 0.0
def _dispatch_consumer_load(self, state: PlantState, active_indices: list[int]) -> None: def _dispatch_consumer_load(self, state: PlantState, active_indices: list[int]) -> None:
total_electrical = sum(state.turbines[idx].electrical_output_mw for idx in active_indices) total_electrical = sum(state.turbines[idx].electrical_output_mw for idx in active_indices)

View File

@@ -74,6 +74,7 @@ class PlantState:
primary_pumps: list[PumpState] = field(default_factory=list) primary_pumps: list[PumpState] = field(default_factory=list)
secondary_pumps: list[PumpState] = field(default_factory=list) secondary_pumps: list[PumpState] = field(default_factory=list)
generators: list[GeneratorState] = field(default_factory=list) generators: list[GeneratorState] = field(default_factory=list)
aux_draws: dict[str, float] = field(default_factory=dict)
time_elapsed: float = field(default=0.0) time_elapsed: float = field(default=0.0)
def snapshot(self) -> dict[str, float]: def snapshot(self) -> dict[str, float]:
@@ -113,6 +114,7 @@ class PlantState:
sec_pumps_blob = data.get("secondary_pumps", []) sec_pumps_blob = data.get("secondary_pumps", [])
generators_blob = data.get("generators", []) generators_blob = data.get("generators", [])
generators = [GeneratorState(**g) for g in generators_blob] generators = [GeneratorState(**g) for g in generators_blob]
aux_draws = data.get("aux_draws", {})
return cls( return cls(
core=CoreState(**core_blob, fission_product_inventory=inventory, emitted_particles=particles), core=CoreState(**core_blob, fission_product_inventory=inventory, emitted_particles=particles),
primary_loop=CoolantLoopState(**data["primary_loop"]), primary_loop=CoolantLoopState(**data["primary_loop"]),
@@ -121,5 +123,6 @@ class PlantState:
primary_pumps=[PumpState(**p) for p in prim_pumps_blob], primary_pumps=[PumpState(**p) for p in prim_pumps_blob],
secondary_pumps=[PumpState(**p) for p in sec_pumps_blob], secondary_pumps=[PumpState(**p) for p in sec_pumps_blob],
generators=generators, generators=generators,
aux_draws=aux_draws,
time_elapsed=data.get("time_elapsed", 0.0), time_elapsed=data.get("time_elapsed", 0.0),
) )

View File

@@ -127,7 +127,10 @@ def test_secondary_pump_unit_toggle_can_restart_pump():
reactor.secondary_pump_active = False reactor.secondary_pump_active = False
reactor.secondary_pump_units = [False, False] reactor.secondary_pump_units = [False, False]
reactor.step(state, dt=1.0, command=ReactorCommand(secondary_pumps={1: True})) cmd = ReactorCommand(secondary_pumps={1: True}, generator_units={1: True})
for _ in range(5):
reactor.step(state, dt=1.0, command=cmd)
cmd = ReactorCommand(coolant_demand=0.75)
assert reactor.secondary_pump_units == [True, False] assert reactor.secondary_pump_units == [True, False]
assert reactor.secondary_pump_active is True assert reactor.secondary_pump_active is True
@@ -140,11 +143,9 @@ def test_primary_pumps_spool_up_over_seconds():
reactor.secondary_pump_units = [False, False] reactor.secondary_pump_units = [False, False]
# Enable both pumps and command full flow; spool should take multiple steps. # Enable both pumps and command full flow; spool should take multiple steps.
target_flow = reactor.primary_pump.flow_rate(1.0) * len(reactor.primary_pump_units) target_flow = reactor.primary_pump.flow_rate(1.0) * len(reactor.primary_pump_units)
reactor.step( cmd = ReactorCommand(primary_pumps={1: True, 2: True}, generator_units={1: True}, coolant_demand=1.0)
state, reactor.step(state, dt=1.0, command=cmd)
dt=1.0, reactor.step(state, dt=1.0, command=ReactorCommand(coolant_demand=1.0))
command=ReactorCommand(primary_pumps={1: True, 2: True}, generator_units={1: True}, coolant_demand=1.0),
)
first_flow = state.primary_loop.mass_flow_rate first_flow = state.primary_loop.mass_flow_rate
assert 0.0 < first_flow < target_flow assert 0.0 < first_flow < target_flow
@@ -164,6 +165,8 @@ def test_full_rod_withdrawal_reaches_gigawatt_power():
reactor.secondary_pump_active = True reactor.secondary_pump_active = True
reactor.primary_pump_units = [True, True] reactor.primary_pump_units = [True, True]
reactor.secondary_pump_units = [True, True] reactor.secondary_pump_units = [True, True]
reactor.generator_auto = True
reactor.step(state, dt=1.0, command=ReactorCommand(generator_units={1: True}))
early_power = 0.0 early_power = 0.0
for step in range(60): for step in range(60):
@@ -184,6 +187,8 @@ def test_partially_inserted_rods_hold_near_three_gw():
reactor.secondary_pump_active = True reactor.secondary_pump_active = True
reactor.primary_pump_units = [True, True] reactor.primary_pump_units = [True, True]
reactor.secondary_pump_units = [True, True] reactor.secondary_pump_units = [True, True]
reactor.generator_auto = True
reactor.step(state, dt=1.0, command=ReactorCommand(generator_units={1: True}))
for _ in range(120): for _ in range(120):
reactor.step(state, dt=1.0) reactor.step(state, dt=1.0)