Systems and methods for managing power supplied over an electric power grid by an electric utility and/or other market participants to a multiplicity of grid elements and devices for supply and/or load curtailment as supply, each of which having a supply equivalence value associated with its energy consumption and/or reduction in consumption and/or supply, and wherein messaging is managed through a network by a coordinator using IP messaging for communication with the grid elements and devices, with the energy management system (EMS), and with the utilities, market participants, and/or grid operators.

The invention relates to a method for controlling an electricity feed to an electricity grid (12) from a load side of an electric circuit (5), comprising the steps of: a) Providing a electricity feed with an associated feed duration to a controller (13) of an electric power converter (7); b) The controller (13) commissioning the electric power converter (7) to provide the electricity feed, until the electricity feed and feed duration is provided anew or until the feed duration expires. The invention further relates to a system for controlling an electricity feed of an electric source.

A control method including, by a computer, acquiring a current SOC value of the battery, acquiring history information related to a past power consumption amount in the vehicle, inputting the history information having been acquired to a learned model, and acquiring prediction information related to the necessary power amount, determining whether the current SOC value is larger than an optimum SOC value determined in advance for suppressing deterioration of the battery, upon determination that the current SOC value is larger than the optimum SOC value, calculating a target value of an SOC value of the battery based on the current SOC value, the optimum SOC value, and the prediction information, and outputting, to the charge and discharge device, control information instructing to discharge power from the battery to an electrical device outside the vehicle until the SOC value of the battery reaches the target value.

Disclosed herein is a dynamic backup battery for updating the firmware of a media device. The media device includes a memory device that is electrically coupled to a port. The port of the media device is configured to receive a first power. The media device also includes a battery that is electrically coupled to the port and is configured to supply a second power to the port. The media device includes a processor electrically coupled to the battery and is configured to monitor the power level of the first power received and based on the power level of the first power received falling below a threshold value, the battery supplies a second power to the port of the media device. The processor is further configured to activate a low power mode, detect an event while in low power mode, deactivate low power mode, perform a task, and reactivate low power mode.

A load-sharing device shares electrical load between a high-ranking load and a low-ranking load. A current transformer connected between a circuit breaker panel and the high-ranking load senses current draw. The current transformer closes a first switch when sufficient current is detected and opens the first switch otherwise. Low-voltage power is connected across nodes of the first switch. A control circuit is connected in parallel with the first switch to control one or more second switches connected between the circuit breaker panel and a low-ranking load. When there is current flow in the control circuit, the second switches are closed, thereby permitting power delivery to the low-ranking load and when there is no current flow in the control circuit, the one or more second switches are open circuited. When the first switch is closed, it provides a short circuit, thereby preventing current flow in the control circuit.

The invention relates to a method for power consumption and power input control in an electrical power supply network, wherein a control signal with an item of tariff information is generated by a signal station at a power supply and unidirectionally output via the power supply network, wherein the control signal is received by at least one receiving unit arranged in the power consumption network and the control signal received by the receiving unit is used for operation control of a power output unit/power input unit for a downstream power consumer/power generator. A device for power consumption/power generation control comprises a receiving unit for a control signal transmitted via a power supply network with means for converting the control signal and for generating switching processes for a power output/power input unit controlled by the receiving unit for connecting a downstream consumer/generator.

Systems and methods for verifying correct completion of a power control sequence in a switchgear provide a commissioning agent that can automatically verify correct completion of the power control sequence. The commissioning agent includes a sequence verification tool that can initiate performance of a power control sequence in the switchgear and immediately compare the sequence actually performed to the sequence intended to be performed. If the two sequences do not match in order and timing, the verification tool reports the mismatch and identifies the error. In some embodiments, the commissioning agent further includes a log viewer that captures the sequence actually performed in the switchgear and displays the result for viewing. Such an arrangement provides a faster and more reliable way to double-check the system integrity of the switchgear during initial engineering and after factory and/or field modifications.

A method includes determining a first voltage level of a first battery and a second voltage level of a second battery. Based on a difference between the first voltage level and the second voltage level satisfying a first threshold and a magnitude of a current failing to satisfy a second threshold, one of the first battery or the second battery is disconnected from the one or more components, and the one or more components of the portable device are powered using the other of the first battery or the second battery. Based on one or more of the difference between the first voltage level and the second voltage level failing to satisfy the first threshold or the magnitude of the current failing to satisfy the second threshold, the one or more components of the portable device are powered using the first battery and the second battery.

Energy storage systems for charging an electronic device and methods of operating the same are disclosed. The energy storage system includes an AC bus, a DC bus, a plurality of batteries, a plurality of breakers, a plurality of inverters, and a controller operatively coupled with the batteries and the breakers. The method includes calculating, by the controller, an amount of power necessary to charge the electronic device; operating, by the controller, the breakers such that the batteries of a discharging station is configured to discharge through a charging station; and charging the electronic device using the batteries.

A process bus-applied protection system includes a process bus, a plurality of MUs (merging units), and a plurality of IEDs (intelligent electric devices). Each of the MUs is configured to sample a current and a voltage of a power system at timing synchronized with a time synchronization signal received through the process bus. Each of the IEDs is configured to be capable of outputting the time synchronization signal to the process bus by serving as a transmission source, and receiving, through the process bus, the time synchronization signal from another IED. The plurality of IEDs have a predetermined priority. Each of the IEDs is configured, when the IED does not receive the time synchronization signal from an IED having a higher priority than that of the IED and serving as a transmission source, to output the time synchronization signal to the process bus by serving as a transmission source.