InterruptiblePowerLoad
PowerSystems.InterruptiblePowerLoad — Typemutable struct InterruptiblePowerLoad <: ControllableLoad
name::String
available::Bool
bus::ACBus
active_power::Float64
reactive_power::Float64
max_active_power::Float64
max_reactive_power::Float64
base_power::Float64
operation_cost::Union{LoadCost, MarketBidCost}
conformity::LoadConformity
services::Vector{Service}
dynamic_injector::Union{Nothing, DynamicInjection}
ext::Dict{String, Any}
internal::InfrastructureSystemsInternal
endA static power load that can be compensated for temporary or continuous interruptions to its requested demand.
These loads are most commonly used for operational optimizations and can be used to model, for example, large commercial and industrial customers enrolled in demand response programs. This load has a target demand profile (set by a max_active_power time series for an operational simulation) that can be reduced to satisfy other system needs. For simpler loads without an operating cost for demand response, see PowerLoad
Arguments
name::String: Name of the component. Components of the same type (e.g.,PowerLoad) must have unique names, but components of different types (e.g.,PowerLoadandACBus) can have the same nameavailable::Bool: Indicator of whether the component is connected and online (true) or disconnected, offline, or down (false). Unavailable components are excluded during simulationsbus::ACBus: Bus that this component is connected toactive_power::Float64: Initial steady state active power demand (MW)reactive_power::Float64: Initial steady state reactive power demand (MVAR)max_active_power::Float64: Maximum active power (MW) that this load can demandmax_reactive_power::Float64: Maximum reactive power (MVAR) that this load can demandbase_power::Float64: Base power (MVA) for per unitization, validation range:(0, nothing)operation_cost::Union{LoadCost, MarketBidCost}:OperationalCostof interrupting loadconformity::LoadConformity: (default:LoadConformity.UNDEFINED) Indicates whether the specified load is conforming or non-conforming. Options are listed here.services::Vector{Service}: (default:Device[]) Services that this device contributes todynamic_injector::Union{Nothing, DynamicInjection}: (default:nothing) corresponding dynamic injection deviceext::Dict{String, Any}: (default:Dict{String, Any}()) An extra dictionary for users to add metadata that are not used in simulation.internal::InfrastructureSystemsInternal: (Do not modify.) PowerSystems.jl internal reference
InfrastructureSystems.get_available — Methodget_available(value::InterruptiblePowerLoad) -> Bool
Get InterruptiblePowerLoad available.
InfrastructureSystems.get_name — Methodget_name(value::InterruptiblePowerLoad) -> String
Get InterruptiblePowerLoad name.
InfrastructureSystems.set_available! — Methodset_available!(value::InterruptiblePowerLoad, val) -> Any
Set InterruptiblePowerLoad available.
PowerSystems.get_active_power — Methodget_active_power(value::InterruptiblePowerLoad) -> Float64
Get InterruptiblePowerLoad active_power.
PowerSystems.get_base_power — Methodget_base_power(value::InterruptiblePowerLoad) -> Float64
Get InterruptiblePowerLoad base_power.
PowerSystems.get_bus — Methodget_bus(value::InterruptiblePowerLoad) -> ACBus
Get InterruptiblePowerLoad bus.
PowerSystems.get_conformity — Methodget_conformity(
value::InterruptiblePowerLoad
) -> LoadConformity
Get InterruptiblePowerLoad conformity.
PowerSystems.get_dynamic_injector — Methodget_dynamic_injector(
value::InterruptiblePowerLoad
) -> Union{Nothing, DynamicInjection}
Get InterruptiblePowerLoad dynamic_injector.
PowerSystems.get_ext — Methodget_ext(value::InterruptiblePowerLoad) -> Dict{String, Any}
Get InterruptiblePowerLoad ext.
PowerSystems.get_max_active_power — Methodget_max_active_power(
value::InterruptiblePowerLoad
) -> Float64
Get InterruptiblePowerLoad max_active_power.
PowerSystems.get_max_reactive_power — Methodget_max_reactive_power(
value::InterruptiblePowerLoad
) -> Float64
Get InterruptiblePowerLoad max_reactive_power.
PowerSystems.get_operation_cost — Methodget_operation_cost(
value::InterruptiblePowerLoad
) -> Union{LoadCost, MarketBidCost}
Get InterruptiblePowerLoad operation_cost.
PowerSystems.get_reactive_power — Methodget_reactive_power(value::InterruptiblePowerLoad) -> Float64
Get InterruptiblePowerLoad reactive_power.
PowerSystems.get_services — Methodget_services(
value::InterruptiblePowerLoad
) -> Vector{Service}
Get InterruptiblePowerLoad services.
PowerSystems.set_active_power! — Methodset_active_power!(value::InterruptiblePowerLoad, val) -> Any
Set InterruptiblePowerLoad active_power.
PowerSystems.set_base_power! — Methodset_base_power!(value::InterruptiblePowerLoad, val) -> Any
Set InterruptiblePowerLoad base_power.
PowerSystems.set_bus! — Methodset_bus!(value::InterruptiblePowerLoad, val) -> Any
Set InterruptiblePowerLoad bus.
PowerSystems.set_conformity! — Methodset_conformity!(value::InterruptiblePowerLoad, val) -> Any
Set InterruptiblePowerLoad conformity.
PowerSystems.set_ext! — Methodset_ext!(value::InterruptiblePowerLoad, val) -> Any
Set InterruptiblePowerLoad ext.
PowerSystems.set_max_active_power! — Methodset_max_active_power!(
value::InterruptiblePowerLoad,
val
) -> Any
Set InterruptiblePowerLoad max_active_power.
PowerSystems.set_max_reactive_power! — Methodset_max_reactive_power!(
value::InterruptiblePowerLoad,
val
) -> Any
Set InterruptiblePowerLoad max_reactive_power.
PowerSystems.set_operation_cost! — Methodset_operation_cost!(
value::InterruptiblePowerLoad,
val
) -> Any
Set InterruptiblePowerLoad operation_cost.
PowerSystems.set_reactive_power! — Methodset_reactive_power!(
value::InterruptiblePowerLoad,
val
) -> Any
Set InterruptiblePowerLoad reactive_power.
PowerSystems.set_services! — Methodset_services!(value::InterruptiblePowerLoad, val) -> Any
Set InterruptiblePowerLoad services.