IEnergySink¶

module interface IEnergySink

The energy sink models absorbs energy from multiple energy generators.

Inheritance diagram¶

Implemented by¶

Name	Type	Description
CcEnergySinkBase	simple module	This is an abstract base module for current-based energy sink models. It defines signals and statistics.
CcEnergyStorageBase	simple module	This is an abstract base module for current-based energy storage models. It defines shared signals and statistics.
EpEnergySinkBase	simple module	This is an abstract base module for power-based energy sink models. It defines signals and statistics.
EpEnergyStorageBase	simple module	This is an abstract base module for power-based energy storage models. It defines shared signals and statistics.
CcBatteryPack	simple module	Models a battery pack consisting of multiple identical cells arranged in series or parallel. Calculates the overall capacity, voltage, and internal resistance based on the cell properties and their arrangement. In a serial arrangement, voltages and internal resistances add up. In a parallel arrangement, capacities add up and internal resistance decreases.
IdealEpEnergyStorage	simple module	This energy storage model stores an infinite amount of energy. It can provide energy for any number of consumers, and it can absorb energy from any number of generators. The ideal energy storage never gets completely charged or depleted. This module is primarily useful for testing energy consumer and energy generator models. See the base module for signals and statistics.
SimpleCcBattery	simple module	This battery model maintains a residual charge capacity by integrating the difference between the total consumed current and the total generated current over time. This model uses a charge-independent ideal voltage source and a charge-independent internal resistance. It initiates node crash when the residual charge capacity reaches zero. See the base module for signals and statistics.
SimpleEpEnergyStorage	simple module	This energy storage model maintains a residual energy capacity by integrating the difference between the total consumed power and the total generated power over time. It initiates node crash when the residual energy capacity reaches zero. This model does not have various properties such as self-discharge, memory effect, overcharging, temperature-dependence, etc. that real-world batteries have. See the base module for signals and statistics.

Known subclasses¶

Name	Type	Description
ICcEnergySink	module interface	This interface extends the corresponding energy model interface. It requires implementations to describe energy consumption and energy generation with current [A], and storage capacity with charge [C] and output voltage [V]. The Cc is an abbreviation that is used for charge and current-based interfaces.
IEnergyStorage	module interface	The energy storage models describe devices that absorb energy produced by generators, and provide energy for consumers. For example, an electrochemical battery in a mobile phone provides energy for its display, its CPU, and its wireless communication device. It can also absorb energy produced by a solar panel installed on its display, or by a portable charger plugged into a wall socket.
IEpEnergySink	module interface	This interface extends the corresponding energy model interface. It requires implementations to describe energy consumption and energy generation with power [W] and storage capacity with energy [J]. The abbreviation Ep is used for energy and power based interfaces.

Properties¶

Name	Value	Description
display	i=block/plug

Source code¶

//
// The energy sink models absorbs energy from multiple energy generators.
//
// @see ~IEnergyConsumer, ~IEnergySource, ~IEnergyGenerator, ~IEnergyStorage, ~IEnergyManagement
//
moduleinterface IEnergySink
{
    parameters:
        @display("i=block/plug");
}

File: src/inet/power/contract/IEnergySink.ned