| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 121 | Electrical system | US34563219 | 1919-12-17 | US1537636A | 1925-05-12 | WHITTAKER CHARLES C |
| 122 | Electrical system and apparatus | US33776419 | 1919-11-13 | US1477456A | 1923-12-11 | SIMMON KARL A |
| 123 | Adjustable fan for dynamo-electric machines | US1318453D | US1318453A | 1919-10-14 | ||
| 124 | System of motor control. | US1907354969 | 1907-01-31 | US1017257A | 1912-02-13 | FRANKENFIELD BUDD |
| 125 | Electric motor or generator. | US1910592832 | 1910-11-17 | US1004230A | 1911-09-26 | BALCOME HERBERT A |
| 126 | Dynamo-electric machine. | US992883D | US992883A | 1911-05-23 | KWIS ARTHUR F | |
| 127 | Railway-motor. | US1908430849 | 1908-05-04 | US947338A | 1910-01-25 | KINTNER SAMUEL M |
| 128 | Dynamo-ventilator. | US1908427322 | 1908-04-16 | US919203A | 1909-04-20 | MCCULLOUGH DAVID RUSH |
| 129 | DYNAMOELECTRIC MACHINE SEALING OIL MONITORING SYSTEM, COMPUTER PROGRAM PRODUCT AND RELATED METHODS | US15596543 | 2017-05-16 | US20180335416A1 | 2018-11-22 | Hua Zhang; Jan Terry Stover |
| Various embodiments of the disclosure include a system having: a computing device configured to monitor a sealing oil from a dynamoelectric machine by performing actions including: establish a baseline flow rate for the sealing oil through the dynamoelectric machine for designed operating conditions; calculate a plurality of average flow rates for the sealing oil through the dynamoelectric machine from a set of measured flow rates in each of a plurality of successive designated periods; provide an alert suggesting action in response to at least one of the average flow rates deviating from a threshold flow rate, the threshold flow rate derived from the baseline flow rate to indicate a fault in the sealing oil; and calculate an expected sealing life for the sealing oil based upon a pattern in the plurality of average flow rates for the plurality of successive designated periods. | ||||||
| 130 | Induction motor with transverse liquid cooled rotor and stator | US14662765 | 2015-03-19 | US09985500B2 | 2018-05-29 | Wally E. Rippel; Eric E. Rippel |
| An electric machine with fluid cooling. The electric machine includes a stator, the stator having a stator winding and a stator core having a plurality of stacked magnetic laminations, each of the laminations of the stator core having a plurality of apertures overlapping to form a plurality of stator fluid channels, a stator fluid channel of the plurality of stator fluid channels being not entirely axial. The electric machine further includes a rotor, the rotor having a shaft and a rotor core having a plurality of stacked magnetic laminations, each of the laminations of the rotor core having a plurality of apertures overlapping to form a plurality of rotor fluid channels, and a rotary fluid coupling in fluid communication with the rotor fluid channels. The rotor and the stator are configured to form a magnetic circuit comprising an air gap between the rotor and the stator. | ||||||
| 131 | Rotating electric machine winding temperature estimation device and rotating electric machine winding temperature estimation method | US15318394 | 2015-06-25 | US09960728B2 | 2018-05-01 | Yuta Ito; Munehiro Matsubara; Hiroyuki Matsuoka |
| A winding temperature estimation device for a rotating electric machine includes a rotating electric machine including a stator, which has a winding, and a rotor, a coolant supply part configured to supply a coolant, a temperature sensor configured to detect a temperature of the coolant, a heat reduction amount calculation part configured to calculate a heat reduction amount of the winding using the temperature of the coolant and a heat resistance between the coolant and the winding, a heating value calculation part configured to calculate a heating value due to a loss of the winding, and a winding temperature calculation part configured to calculate a temperature of the winding using the heat reduction amount from the winding and the heating value due to the loss of the winding. | ||||||
| 132 | Valve assembly for variable frequency generator and method of sealing | US14880802 | 2015-10-12 | US09784380B2 | 2017-10-10 | Glenn C. Lemmers, Jr. |
| A valve assembly for a variable frequency generator includes an input shaft extending about a longitudinal axis and having a bore defined therein. Also included is a disconnect shaft extending about the longitudinal axis and disposed in abutment with the input shaft. Further included is an oil restrictor disposed with the bore of the input shaft. Yet further included is a vent valve disposed within the bore and in abutment with the oil restrictor, the vent valve comprising an angled wall, the angled wall partially defining an annulus. Also included is a plurality of ball bearings disposed within the annulus, the plurality of ball bearings sliding radially outwardly away from the longitudinal axis during rotational operation of the input shaft to apply a force on the angled wall of the vent valve to bias the vent valve axially into a sealed condition. | ||||||
| 133 | ROTATING ELECTRIC MACHINE WINDING TEMPERATURE ESTIMATION DEVICE AND ROTATING ELECTRIC MACHINE WINDING TEMPERATURE ESTIMATION METHOD | US15318394 | 2015-06-25 | US20170133972A1 | 2017-05-11 | Yuta Ito; Munehiro Matsubara; Hiroyuki Matsuoka |
| A winding temperature estimation device for a rotating electric machine includes a rotating electric machine including a stator, which has a winding, and a rotor, a coolant supply part configured to supply a coolant, a temperature sensor configured to detect a temperature of the coolant, a heat reduction amount calculation part configured to calculate a heat reduction amount of the winding using the temperature of the coolant and a heat resistance between the coolant and the winding, a heating value calculation part configured to calculate a heating value due to a loss of the winding, and a winding temperature calculation part configured to calculate a temperature of the winding using the heat reduction amount from the winding and the heating value due to the loss of the winding. | ||||||
| 134 | METHOD AND APPARATUS TO DETERMINE AN EFFECTIVE TEMPERATURE OF COOLANT FLUID FOR A HEAT GENERATING DEVICE | US14574469 | 2014-12-18 | US20160178548A1 | 2016-06-23 | Daniel J. Berry |
| A method for dynamically monitoring temperature of a fluid at a heat generating device includes monitoring, using a temperature sensor, temperature of the fluid held in a fluidic sump. A first fluidic flow rate and a second fluidic flow rate are determined. A third fluidic flow rate and a temperature drop of the fluid across the heat exchanger in the active coolant circuit are determined based upon the temperature of the fluid and the third fluidic flow rate through the active coolant circuit. A fluid temperature supplied to the electric machine through the active coolant circuit is determined based upon the third fluidic flow rate and the temperature drop of the fluid across the heat exchanger. An effective temperature of the fluid is determined based upon the temperature of the fluid in the sump and the temperature of the fluid supplied to the electric machine through the active coolant circuit. | ||||||
| 135 | Electrical motor | US14104005 | 2013-12-12 | US09276451B2 | 2016-03-01 | Kentarou Oda; Nobuyoshi Sakuma |
| An electrical motor includes a motor case inside which an inner space is formed, a bearing disposed so as to pass through a wall of the motor case, a rotor shaft rotatably supported by the bearing, and an earth conductor fixed with the motor case and provided with a frame and an electrical conductor provided on the frame. The frame has an annular inner circumferential surface along an outer circumference of the rotor shaft and is fixed with the motor shaft. The electrical conductor is disposed on the inner circumferential surface of the frame so as to slidably contact its end with the rotor shaft. A bypass flow passage is provided between the earth conductor and the motor case. The inner space is communicated with an outside of the motor case via the bypass flow passage. According to the motor, its inside can be cooled without damaging the earth conductor. | ||||||
| 136 | Superconducting machine and method for the operation thereof | US14241919 | 2012-08-17 | US09257877B2 | 2016-02-09 | Joachim Frauenhofer; Jörn Grundmann; Rainer Hartig; Peter Kummeth; Peter Van Hasselt |
| A superconducting machine is disclosed, in particular for use as a generator in a stand-alone power system. In at least one embodiment, the superconducting machine includes a stator and a rotor capable of rotating with respect to the stator. At least one superconducting coil for generating at least two magnetic poles is provided on at least one component part, in particular the rotor, which superconducting coil is cooled via a cooling device; and at least two parallel winding elements are provided on the respective other component part, in particular the stator, in the armature winding for each phase, which winding elements can be connected either in series or in parallel via at least one switching device. | ||||||
| 137 | Control apparatus for electric rotating machine | US13706688 | 2012-12-06 | US08818599B2 | 2014-08-26 | Hiroshi Inamura |
| The control apparatus is for an electric rotating machine which is mounted as an engine on a vehicle together with a power conversion circuit to be connected to the electric rotating machine, and a cooling apparatus for circulating coolant to the electric rotating machine and the power conversion circuit through a circulation channel, including. The control apparatus includes a limiting means for performing a limiting operation to limit an amount of electric power supply from the inverter to the electric rotating machine each time a circulation starting timing of the coolant comes, and a terminating means for terminating the limiting operation after a lapse of a predefined period from start of the limiting operation. | ||||||
| 138 | AUXILIARY POWER UNIT GENERATOR | US13771878 | 2013-02-20 | US20140230439A1 | 2014-08-21 | Eric A. Brust; Eric A. Nager; Ted A. Martin; Jake A. Rohrig; Brady A. Manogue |
| A generator includes a main cavity and a shaft located in the main cavity. The shaft is configured to be connected to an auxiliary power unit (APU) and rotated by the APU. The generator is configured to generate power based on the rotation of the shaft. A fluid system is configured to receive a fluid from the APU, flow the fluid through the main cavity and return the fluid to the APU through a fluid scavenge channel. A filter is configured to filter the fluid from the main cavity to the fluid scavenge channel and a sensor is configured to detect a characteristic of the fluid at the filter. | ||||||
| 139 | ELECTRICAL MOTOR | US14104005 | 2013-12-12 | US20140097714A1 | 2014-04-10 | Kentarou ODA; Nobuyoshi SAKUMA |
| An electrical motor includes a motor case inside which an inner space is formed, a bearing disposed so as to pass through a wall of the motor case, a rotor shaft rotatably supported by the bearing, and an earth conductor fixed with the motor case and provided with a frame and an electrical conductor provided on the frame. The frame has an annular inner circumferential surface along an outer circumference of the rotor shaft and is fixed with the motor shaft. The electrical conductor is disposed on the inner circumferential surface of the frame so as to slidably contact its end with the rotor shaft. A bypass flow passage is provided between the earth conductor and the motor case. The inner space is communicated with an outside of the motor case via the bypass flow passage. According to the motor, its inside can be cooled without damaging the earth conductor. | ||||||
| 140 | LONG FIBRE OPTIC SENSOR SYSTEM IN A WIND TURBINE COMPONENT | US13988493 | 2011-11-23 | US20130278918A1 | 2013-10-24 | Lars Glavind; Thomas Hjort; Ib Svend Olesen |
| A sensor system for measuring an operating parameter of a wind turbine component is described. The fibre optic sensor system comprises a light source for outputting light in a predetermined range of wavelengths, and an optical fibre comprising a long Fibre Bragg Grating, extending continuously over a length of the optical fibre to provide a continuous measurement region in the optical fibre. The optical fibre is coupled to the wind turbine component such that the continuous measurement region is located at a region of the wind turbine component to be sensed, and such that the grating period at each location in the continuous measurement period is dependent upon the value of the operating parameter at that location. A light detector receives light from the optical fibre, and provides an output signal to the controller indicating the intensity of the received light; based on the detected light, a value for the operating parameter is determined. | ||||||
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