136 results about "Standby generator" patented technology

During periods of vehicle inactivity, a vehicle-based APU electric generating system may be coupled into a regional electric grid to send electricity into the grid. A currently-preferred APU is a solid oxide fuel cell system. When a large number of vehicles are thus equipped and connected, substantial electric buffering can be effected to the grid load. A vehicle-based APU can also function as a back-up generator to a docking facility in the event of power failure of the grid. Gaseous hydrocarbon is readily supplied by pipe in many locations as a commercial and residential heating fuel source, and a hydrocarbon reformer on the vehicle can be attached to the fuel source, enabling an APU to operate as a stationary power source indefinitely. An optional storage tank on the vehicle may be refueled with gaseous fuel, for example, while the battery is being electrically recharged by the grid.

A remote and portable, hybrid power system comprising one or more of the following components: a solar system, batteries, a back-up generator, a wind energy system, and a communications system. The components are disposed on a platform that is portable and transportable to the remote location by a truck or other transportation vehicle.

A method and system for managing electrical loads on a standby generator. The method includes utilizing a transfer switch control to selectively shed loads each associated with one of a series of priority circuits. Priority values are initially assigned to each of the electric loads based upon the initial hard-wired connection of the electric loads to a main breaker panel during set up. The control unit of a transfer switch allows the user to reassign priority values to each of the electric loads based upon a user preference. The control unit includes one or more predefined priority assignment programs that can be selected to modify the priority values assigned to the electric loads.

An improved interface for renewable energy systems is disclosed for interconnecting a plurality of power sources such as photovoltaic solar panels, windmills, standby generators and the like. The improved interface for renewable energy systems includes a multi-channel micro-inverter having novel heat dissipation, novel mountings, electronic redundancy and remote communication systems. The improved interface for renewable energy systems is capable of automatic switching between a grid-tied operation, an off grid operation or an emergency power operation. The interface provides for monitoring and for detecting performance and / or faults in power sources such as photovoltaic solar panels.

An improved interface for renewable energy systems is disclosed for interconnecting a plurality of power sources such as photovoltaic solar panels, windmills, standby generators and the like. The improved interface for renewable energy systems includes a multi-channel micro-inverter having novel heat dissipation, novel mountings, electronic redundancy and remote communication systems. The improved interface for renewable energy systems is capable of automatic switching between a grid-tied operation, an off grid operation or an emergency power operation.

An unmanned self-sustained fuel dispensing station for fuels of all sorts (gasoline, pesticides, water, fertilizers etc.) a tank, docking, and coupling system for unmanned aerial vehicles (UAV) of the vertical takeoff types. The station can be independent of public power and communication utilities and can operate by remote control without an on-site attendant. The preferred system has a central command center with a control computer in communication with a station control computer located at one or more satellite stations through a communications link. The station control computer can be controlled remotely by the command center. The station control computer programming has control over the activities of the station through an electrical generation subsystem with a solar array, battery bank, battery charger and standby generator; a fuel dispensing subsystem; a security subsystem with video cameras; a communications link and a status sensor subsystem.

A portable, tow-able, buoyant hybrid renewable energy platform for producing and storing electrical energy using wind, water, and solar power, or a combination of these methods. Included on this platform is a wind turbine that semi-detaches to become a water turbine, if necessary. A small fuel backup generator is provided for, as is a system for air-portage and stabilizing the device.

The invention discloses an uninterrupted power system (UPS) capable of continuously supplying power, which comprises a power generator set unit, a UPS unit, a selection switch (8) and a control unit (9), wherein the power generator set and the UPS unit form a standby loop which is respectively connected with loads through the selection switch (8), when a mains supply loop (11) is abnormal, the control unit (9) controls the selection switch (8) to be switched into the mains supply loop (11) for providing standby power to the loads, thus uninterrupted power supply is realized. According to the invention, under the condition of main supply failure, the UPS can be switched to a standby power generator for supplying power, so that the uninterrupted power supply for residual families is realized; and meanwhile, a duration-free sustainable energy-saving environmental-friendly power supply mode is met.

A method for providing backup power for an electronic installation comprising a plurality of electronic units, all operating on standard commercial power, comprising a plurality of backup generators, that are scaleable, modular and redundant, adapted to power one or more of the electronic units in the event standard commercial power is interrupted.

A standby generator including a weather alert receiver and a method of testing said standby generator. The method includes receiving any one of a plurality of weather alerts, determining if the received weather alert exceeds a priority level, determining a period of time in which the standby generator was last run in an exercise mode, and if the weather alert exceeds the priority level and if the period of time is above a testing threshold, automatically starting the generator and running it in an exercise mode. The control unit of the generator monitors for any one of a plurality of generator fault conditions, and provides an indication on a control panel of a detected generator fault condition. Both weather alert information and generator fault condition information can be relayed to a remote status display device.

A method and system for managing loads powered by a standby generator. The method includes utilizing a transfer switch control unit to selectively shed loads each associated with one of a series of priority circuits. The loads are shed in a sequential order based upon the priority circuit to which the load is applied. Once a required load has been shed, the control unit determines whether any of the lower priority loads can be reconnected to the generator without exceeding the rating of the generator while one of the higher priority circuits remains open.

The equipment consists of the intelligent typed high voltage switch cabinet, three phases five poles delta / Yo-11 connection, intelligent typed low switch cabinet and intelligent integrated console, 10kV dual power sources through the high voltage measuring cabinet, the intelligent high voltage power receiving cabinet and intelligent high voltage power feeding cabinet provides power to the transformer in three phases five poles delta / Yo-11 connection. The intelligent type low voltage cabinet distributes electricity. With two linked sections of low voltage buses, the stand-by generator and the intelligent integrated console being added, the intelligent equipment is built up.

The present invention relates generally to a load center. More particularly, the invention encompasses a generator ready load center (GRLC). The present invention is also directed to a novel generator ready load center (GRLC) that operates as a standard load center but is ready to accommodate an automatic transfer switch (ATS) for a standby generator, or a manual transfer switch (MTS) for a portable generator. Further the generator ready load center provides an automatic and manual transfer between primary and secondary power sources. The generator ready load center solves the problem of dangerous back-feeding between the primary power source and the secondary power source.

Described herein is an air handling unit for use in an integrated data center that provides for efficient cooling, wherein the air handling unit includes one or more uninterruptable cooling fans each with a weighted rotor for providing uninterrupted cooling during a power outage until back-up generators come on-line, and a method of using the same. The uninterruptable cooling fan rotors are configured to store sufficient energy as rotational kinetic energy. Furthermore, the uninterruptable cooling fans may also be configured for generation of electricity to power a control system associated therewith during a power outage until back-up generators come on-line.

An enclosure for a standby generator includes a frame having a base for supporting an engine and an alternator driven by the engine, a back wall extending generally vertically from the base, and first and second sidewalls extending generally vertically from the base and connected to the back wall at opposite ends of the enclosure, the first and second sidewall each having a top edge, generally sloping downward from the back wall forward. The enclosure also includes first and second doors, each respectively attached to the first and second sidewalls of the frame such that each pivots about the top edge of the first and second sidewalls.

A standby generator that includes a control unit that allows the standby generator to be automatically restarted upon termination of the generator operation due to a fault condition. The control unit of the standby generator monitors various conditions of the standby generator and terminates operation of the standby generator upon detection of any one of a plurality of fault conditions. After the generator operation has been terminated, the control unit determines whether the fault condition is one of a series of fault conditions that allows automatic restarting. If the fault condition allows for automatic restarting, the control unit monitors the status of the generator and will automatically restart the generator after removal of the fault condition.

The present invention provides a flywheel system with a variable speed synchronous reluctance motor-generator and a variable speed permanent magnet generator for providing backup power. The flywheel system incorporates rotating elements supported by electromagnetic bearings. Electric power provided by the backup generator maintains electromagnetic bearing operation during that portion of the coast down period when shaft speed falls below the minimum required for operation of the synchronous reluctance motor-generator.

The invention provides a hierarchically accessible monitoring system configured to be used with a standby generator, and a method of remotely accessing generator information from a standby generator. The hierarchically accessible monitoring system includes an interface unit configured to receive information from the standby generator and to communicate the generator information, and a remote data server in communication with the interface unit. The remote data server receives the generator information from the interface unit, stores the generator information, and controls access to the generator information based upon at least two hierarchical levels, each hierarchical level having different access privileges. The hierarchically accessible monitoring system also includes a user interface configured to display the generator information from the remote data server to at least one user. The user has access privileges to read the generator information based upon the user's assigned hierarchical level.

The invention relates to an ambient temperature thermal energy cryogenic engine with constant pressure with continuous ''cold'' combustion at constant pressure and with an active chamber operating with a cryogenic fluid (A2) stored in its liquid phase, and used as a work gas in its gaseous phase and operating in a closed cycle with return to its liquid phase. The initially liquid cryogenic fluid is vaporized in the gaseous phase at very low temperatures and supplies the inlet (A4) of a gas compression device (B), which then discharges this compressed work gas, still at low temperature, and through a heat exchanger with the ambient temperature (C), into a work tank or external expansion chamber (19) fitted or not fitted with a heating device, where its temperature and its volume will considerably increase in order to then be preferably let into a relief device (D) providing work and for example comprising an active chamber according to international patent application WO 2005 / 049968. Application to land vehicles, motor vehicles, buses, motorcycles, boats, aircraft, standby generators, cogeneration sets, stationary engines.

The invention discloses a multifunctional parking brake test bed, which comprises a table top turning device, a rack lifting device, an operating control device and a power device, wherein a front baffle in the table top turning device is hinged at the front end of an upper table top welding frame; two ends of a front baffle oil cylinder are hinged with the front baffle and the upper table top welding frame respectively; a guardrail is arranged on the upper table top welding frame; one end of an upper table top turning oil cylinder is hinged in the middle of the upper table top welding frame, and the other end of the upper table top turning oil cylinder is hinged in the middle of a lower rack welding frame; a hydraulic lock is arranged on the upper table top turning oil cylinder; the lower end of the lower rack welding frame in the rack lifting device is hinged on a diagonal bracing guide mechanism; a brake unlocking oil cylinder is arranged on a spring brake; the spring brake is arranged on the lower part of the lower rack welding frame, is hinged to the other end of the diagonal bracing guide mechanism and is connected with a slide block; one end of a lower rack lifting oil cylinder is hinged on a foundation, and the other end of the lower rack lifting oil cylinder is hinged on the lower rack welding frame; a wired remote controller in the operating control device is connected with a hydraulic station and a drainage pump; and a spare generating set in the power device is connected with the hydraulic station and the drainage pump respectively.

The invention discloses a method for inquiring heavy load of ship power station power management. The method presets an abrupt change quantity of power station load power and makes a reasonable judgment so as to avoid whole ship power off accidents caused by electric network breakdown due to abrupt changes of the load power and ensure the navigational safety of a ship. The method mainly comprises the following steps: calculating the gross capacity nPe of a generating set; calculating the actually output total power sigmaPi; calculating the potential change quantity Pa (Pa=Pmax-Po) of an input high-power load, wherein the Pmax is the rated power of the high-power load, and the Po is the initial power of the high-power load in running; calculating the value of P (P=nPe-sigmaPi-Pa-Ps), wherein the Ps is the power of a high-power load to be input; and judging whether the value of the P is larger than an allowed power margin D1, if so, allowing the high-power load to be started, otherwise, inputting a standby generator, and judging whether the high-power load is allowed to be started again.

A transfer switch controller is for a transfer switch. The transfer switch controller includes a first input having an alternating current voltage and structured to input power from a utility power source, second inputs structured to input remote or local signals, and an output structured to output an alternating current voltage to a standby generator. A normally closed switch, such as a relay, includes a number of normally closed contacts electrically connected between the first input and the output. The normally closed contacts are normally closed to cause the alternating current voltage of the first input to be normally output to the alternating current voltage of the output. A microprocessor cooperates with the second inputs and the normally closed switch. The microprocessor causes the normally closed switch to open responsive to one or more of the remote or local signals.

A backup power generator unit for use with electronic equipment housed in an equipment cabinet, the cabinet having a top and a bottom, the bottom comprising attachment structure to attach the equipment cabinet to a base, the backup generator being housed in a backup generator cabinet having a top and a bottom substantially the same size as the top and bottom of the electronic equipment cabinet, the backup generator cabinet having attachment structure substantially similar to the attachment structure of the electronic equipment cabinet, so that the backup generator cabinet fits under the bottom or on the top of the electrical equipment cabinet and can be attached thereto.

Disclosed herein is a method that relates to ensuring backup generator fuel availability. The method includes, receiving natural gas at a local backup power generation site via pipeline, compressing the natural gas and then containing the natural gas in compressed form until needed pursuant to power outage. The method further includes regulating the compressed natural gas to a pressure appropriate for a backup generator subsequent to a power outage.