Abstract: Systems, methods, and apparatus for pre-processing of electrical power grid data for event-driven automatic generation control (AGC) are presented herein. An AGC application can determine AGC output data, for output to a unit controller that controls power generator(s) related to an electrical power grid, based on current values of a subset of electrical power grid data associated with the electrical power grid that has changed since a prior determination that the electrical power grid data has changed. A pre-process component can determine the subset of the electrical power grid data that has changed since the prior determination, and send the current values of the subset of the electrical power grid data to an area control error component. An event-driven component can determine information in response to an event trigger generated based on processing the current values of the subset of the electrical power grid data received from the pre-process component.
Type:
Application
Filed:
June 5, 2012
Publication date:
December 5, 2013
Applicant:
ALSTOM GRID, INC.
Inventors:
Anthony Terence Patterson, Bradley Thomas Nelson
Abstract: A seamless power transfer apparatus comprising a solar grid and a utility power grid. The apparatus comprises a smart switch electrically connected to the solar grid and to the utility grid. The smart switch does not allow the solar grid to supply power to the utility power grid at any time.
Abstract: A method is provided for merging different load forecasts for power grid centers. Area load forecasts are accepted from load forecast engines. A relational database saves load forecast engine data. A comprehensive operating plan integrates individual load forecasts into a composite load forecast to present a comprehensive, synchronized and harmonized load forecast.
Type:
Grant
Filed:
July 2, 2010
Date of Patent:
September 17, 2013
Assignee:
Alstom Grid Inc.
Inventors:
David Sun, Kwok Cheung, Kenneth Chung, Tory McKeag
Abstract: Energy commodities in the form of electricity and combustible fuel (e.g. natural gas, propane) are used by appliances in a fashion which is monitored and controlled through a Premises Energy Management System (PEMS). The system facilitates direct monitoring and control of energy-consuming appliances, in real time, utilizing automated programmatic control and a plurality of human interfaces including local display and control, email, web browser, text messaging, and integrated voice response (IVR). A Monitoring and Control Coordinator (MCC) provides centralized coordination of functions and one or more Communicating Appliance Interfaces (CAI) interacting with energy consuming appliances are interconnected via wired and wireless communication networks and protocols. The system may retrieve information from third parties, such as weather services, for optimizing energy usage.
Abstract: Multi-layered taping materials, methods of making such materials, methods of using such materials and articles including such materials are disclosed.
Abstract: An electronic mirroring system comprises a mirroring unit (12) consisted of a flat panel television (10) attached a touch panel (11), a front video camera (13), a rear video camera (14), and a main unit (21). A front image and a back image are displayed on the flat panel television (10) of the mirroring unit (12) simultaneously.
Abstract: A master-slave current sensor system for measuring, for example, differential current on a transmission line is described. The slave current sensor can be periodically recalibrated (or have a compensation value re-calculated) based on the master sensor's average output, and the slave sensor can be unpowered and remote from an electronics box which receives its measurements. Health monitoring and fault location can also be performed using the master-slave optical current sensor system, optionally in conjunction with one or more voltage sensors.
Abstract: Energy commodities in the form of electricity and combustible fuel (e.g. natural gas, propane) are used by appliances within a residence or commercial premises in a fashion which is monitored and controlled through a Premises Energy Management System (PEMS). The system facilitates direct monitoring and control of energy-consuming appliances, in real time, utilizing automated programmatic control and a plurality of human interfaces including local display and control, email, web browser, text messaging, and integrated voice response (IVR). A Monitoring and Control Coordinator (MCC) provides centralized coordination of functions and one or more Communicating Appliance Interfaces (CAI) interact with energy consuming appliances are interconnected via wired and wireless communication networks and protocols. The system may retrieve information from third parties, such as from weather services, for optimizing energy usage.
Abstract: A computer system for hosting computing clusters for clients. The system includes clusters each including a set of computing resources and each implemented in custom or differing configurations. Each of the configurations provides a customized computing environment for performing particular client tasks. The configurations may differ due to configuration of the processing nodes, the data storage, or the private cluster network or its connections. The system includes a monitoring system that monitors the clusters for operational problems on a cluster level and also on a per-node basis such as with monitors provided for each node. The system controls client access to the clusters via a public communications by only allowing clients to access their assigned cluster or the cluster configured per their specifications and performing their computing task. Gateway mechanisms isolate each cluster such that communications within a cluster or on a private cluster communications network are maintained separate.