Abstract:
An electronic device can include: a communication unit; a display unit for display contents; and a controller configured to: display a user interface for querying whether to continuously display the contents or stop a display of the contents on the display unit, when the electronic device enters a high rate time slot determined based on electricity rate information received through the communication unit, receive an input for stopping the display of the contents through the user interface, and output a power ON signal and source information of the contents to a replacement electronic device.
Abstract:
An actuation control, for electrical disconnectors, including a device for driving the actuation motor of a movable element of an electrical disconnector, elements for detecting operating parameters of the disconnector, a device for processing the operating and control parameters of the driving device, elements for storing the operating parameters, which are connected to the processing and control device in order to receive from it and store the processed operating parameters, and interface elements of the actuation control, for its activation for opening or closing the disconnector.
Abstract:
A method for aggregate load management includes determining whether a load capacity limit within a utility power network will be exceeded, selecting an aggregated demand reduction target to remain within capacity bounds if the load capacity limit is to be exceeded, selecting a demand reduction strategy, and sending a control signal that includes a randomized PWM level, based on the strategy, to a controller in a load component of the utility system based on the reduction target. A method for component load management includes receiving a control signal from a utility system based on a utility demand reduction strategy, converting the signal into randomized PWM control of the load component in accordance therewith, receiving an updated control signal based on utility system monitoring of an aggregate load of a component of the utility system, and converting the updated signal into randomized PWM control of the load component in accordance therewith.
Abstract:
Systems and methods for automated fault detection in a building management system are shown and described. The systems and methods further involve organizing the data set into bins, each bin containing a plurality of the observed points for the variable of the building management system. The systems and methods further involve calculating, for each bin, a target parameter and an estimator of scale for the observed points. The systems and methods further involve detecting, for each bin, an outlier of the building management system by comparing a data point of the bin to the calculated target parameter and estimator of scale for the bin.
Abstract:
A method includes presenting a set location setting capable of being selected by a user within a graphical user interface (GUI) of a mobile device. The method proceeds by detecting on-site location information of the mobile device in response to a selection of the set location setting and detecting at least one on-site 802.11 based network in communication with the mobile device in response to a selection of the set location setting. The method proceeds by identifying an on-site IP address associated with the at least one on-site 802.11 based network, and then associating both the on-site location information and the on-site IP address with an on-site zone of a site associated with the mobile device. The method proceeds by altering an operating condition of a network device located at the site in response to a location of the mobile device relative to the on-site zone.
Abstract:
Methods and a system are disclosed for one or more appliances including a controller for managing power consumption within a household. The controller is configured to receive and process a signal indicative of one or more energy parameters of an associated energy utility, including at least a peak demand period or an off-peak demand period. A generated serial number is obtained from an original serial number of the appliance or controller, which is configured for a signal to communicate to the appliance within a population and command the appliance to operate in an energy savings mode and a normal mode at various time periods. The generated serial number (GSN) is used to segregate a total population into segments to provide granularity in assigning DR activations and deactivations based upon the GSN.
Abstract:
A method of managing energy use of a network device located at a site with a mobile device is provided. The method proceeds by determining a plurality of zones about the site and detecting a current location of the mobile device relative to the plurality of zones. The method continues by altering the operating condition of the network device in response to detecting the mobile device changing zones. A graphical user interface (GUI) is displayed within the display screen of the mobile device. A map presenting the site location, the plurality of zones disposed about the site location, and the current location of the mobile device is displayed within the GUI along with a distance selector including selectable distance values. The method further includes automatically scaling the plurality of zones and the map in response to changing the selectable distance value using the distance selector.
Abstract:
According to an aspect of the disclosure, a mobile energy management system includes controlling at least one network device at a site using the proximity detection of a mobile device based upon the detection of a plurality of zones. Various features may be presented on a graphical user interface of the mobile device including a map which may present the location of the site, the current location of the mobile device, and the plurality of zones. The graphical user interface may further include a zone size setting presenting selectable distance values enabling the user to set the distance between the site and the boundary of each zone. In response to the selection of a distance value, the mobile device may automatically scale the map to simultaneously present the boundary of each zone and the current location of the mobile device within the display screen of the mobile device.
Abstract:
A control system for a distributed power grid includes a simulation module operative to directly interface with operational control of distributed energy resources (DER) to develop and when necessary dynamically modify control inputs of the distributed power grid. By conducting a decentralized and distributed simulation of DER topology (components and their surrounding infrastructure) each distributed control module can simulate control response characteristics of a plurality of DER to determine a control methodology necessary to achieve a desired target. Once developed the same control inputs can be directly applied to physical DER and thereafter monitored to validate performance. Once validated, operational control of the DER is established while ongoing modifications of the control inputs continues in parallel to maintain desired performance.
Abstract:
An electronic device is provided that comprises a communication unit; an output unit; and a controller configured to output at least one of a first user interface and a second user interface through the output unit, in a case of entering a high rate time slot determined based on electricity rate information received through the communication unit while outputting contents through the output unit, wherein the first user interface queries whether to continuously output the contents through the output unit and wherein the second user interface is to receive a selection associated with a replacement electronic device for outputting the contents.