| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 1 | 带有空化调节的液环真空泵 | CN201280061046.3 | 2012-12-12 | CN104066994B | 2016-09-21 | 海纳·克斯特斯; 马蒂亚斯·塔姆; 丹尼尔·许策 |
| 本发明涉及用于运行液体环真空泵的方法，其中进行泵的振动测量并且将之与规定的空化阈值(26)进行比较。另外，进行代表被输送的气体内的液体成分的测量。将此测量与规定的阈值进行比较。如果已超过规定的空化阈值(26)且液体成分低于规定的阈值，则降低液体环真空泵的转速。如果已超过规定的空化阈值且液体成分高于规定的阈值，则升高液体环真空泵的转速。本发明还涉及为了实施该方法而设计的液体环真空泵。由于取决于根据本发明的泵的振荡而进行调节，所以可接近空化边界运行所述泵而无任何损坏的风险。 | ||||||
| 2 | 在限制能耗的同时能迅速抽空的外罩 | CN200610072638.1 | 2006-04-05 | CN100559028C | 2009-11-11 | 让·吕克·里瓦尔 |
| 本发明的真空泵吸装置包括用于驱动多段干式机械泵的马达，其中这些段按照多个连续结构连续并联然后串联连接，选择每个结构来优化在当前压力范围中的泵吸速度。这使之能够迅速降低在外罩内的压力，同时与其速度足以获得相同快速泵吸的传统泵相比，使该泵的体积和由该泵所消耗的能量降低了大约40%。 | ||||||
| 3 | 在限制能耗的同时能迅速抽空的外罩 | CN200610072638.1 | 2006-04-05 | CN1847660A | 2006-10-18 | 让·吕克·里瓦尔 |
| 本发明的真空泵吸装置包括用于驱动多段干式机械泵(2)的马达(1)，其中这些段(5，6，7，8)按照多个连续结构连续并联然后串联连接，选择每个结构来优化在当前压力范围中的泵吸速度。这使之能够迅速降低在外罩(100)内的压力，同时与其速度足以获得相同快速泵吸的传统泵相比，使该泵的体积和由该泵所消耗的能量降低了大约40％。 | ||||||
| 4 | 涡形流体机械用的测速器 | CN94104670.2 | 1994-04-26 | CN1106504A | 1995-08-09 | 三浦茂树; 谷垣龙平; 饭尾孝征 |
| 一种涡形流体机械用的测速器，在上述涡形流体机械的封闭壳体中设置有一个固定的涡管和一个沿一定轨道旋转的涡管，这两个涡管互相接合，各带有一个位于它们的端板的内表面上的螺旋管体，上述沿轨道旋转的涡管转动时，通过一个外表面上设置有上述旋转涡管的欧氏环检测它的转动情况，其特征在于，上述的欧氏环由磁性材料制成，并且，有一个电磁感应型的旋转信号检测机构安装在与上述欧氏环相对的地方。 | ||||||
| 5 | 带有空化调节的液环真空泵 | CN201280061046.3 | 2012-12-12 | CN104066994A | 2014-09-24 | 海纳·克斯特斯; 马蒂亚斯·塔姆; 丹尼尔·许策 |
| 本发明涉及用于运行液体环真空泵的方法，其中进行泵的振动测量并且将之与规定的空化阈值(26)进行比较。另外，进行代表被输送的气体内的液体成分的测量。将此测量与规定的阈值进行比较。如果已超过规定的空化阈值(26)且液体成分低于规定的阈值，则降低液体环真空泵的转速。如果已超过规定的空化阈值且液体成分高于规定的阈值，则升高液体环真空泵的转速。本发明还涉及为了实施该方法而设计的液体环真空泵。由于取决于根据本发明的泵的振荡而进行调节，所以可接近空化边界运行所述泵而无任何损坏的风险。 | ||||||
| 6 | 用于在停止期间控制变速压缩机的系统和方法 | CN200680013284.1 | 2006-02-24 | CN101163887B | 2013-05-22 | 詹姆士·R·林德赛; 詹姆士·E·梅哈菲; 理查德·马乌奈伊 |
| 一种可操作用于响应于停机信号停机的压缩机系统。该压缩机系统包括可在第一速度和第二速度之间操作的压缩装置(22、34)，以产生一定压力的压缩流体的流动。泄料阀(48)可在关闭位置和打开位置之间移动，在该打开位置中，至少一部分压缩流体的流动通过泄料阀(48)以降低压缩流体流动的压力。传感器(46)定位成测量压力，而控制器(47)可操作用于响应于停机信号，使泄料阀(48)移动到打开位置，并将压缩装置(22、34)的速度设定到低设定点。 | ||||||
| 7 | 电动油泵 | CN201010282813.6 | 2010-09-13 | CN102086863A | 2011-06-08 | 小林喜幸; 筏尚武 |
| 本发明涉及一种能够在怠速熄火时得到良好的变速器操作性能的电动油泵。在步骤1中判断为发动机熄火时电动油泵(4)的预备动作未正常进行的情况下，使发动机的驱动继续。在步骤1中判断为预备动作正常，并在步骤2中判断为供给通路的管路压力比规定的压力Ps低。在步骤3中判断为电动油泵(4)未工作的情况下，在步骤4中使电动机通电而使电动油泵(4)开始工作。在步骤5中判断为制动操作被解除并且发动机启动、并在步骤6中判断为管路压力比规定的油压Pt高的情况下，在步骤7中使电动油泵(4)停止工作。 | ||||||
| 8 | 电机控制装置及压缩机 | CN200810129803.1 | 2008-08-07 | CN101364785B | 2011-06-01 | 桥本荣一郎 |
| 一种电机控制装置，对驱动负载转矩周期性变动的负载的电机执行矢量控制，具备：推定或检测电机速度的电机速度导出机构；按照所述电机速度跟踪从外部赋予的电机速度指令值的方式，生成转矩电流指令值的速度控制机构；接收对应所述负载转矩的变动而变动的控制值，通过强调所述控制值的周期性变动成分，来生成转矩电流修正值的共振型滤波器；通过将所述转矩电流修正值与所述转矩电流指令值叠加，生成叠加转矩电流指令值的转矩电流修正机构；和通过根据所述叠加转矩电流指令值控制所述共振型滤波器，对所述转矩电流修正值的相位进行调整的调整机构；并且，根据所述叠加转矩电流指令值执行所述矢量控制。 | ||||||
| 9 | 电机控制装置及压缩机 | CN200810129803.1 | 2008-08-07 | CN101364785A | 2009-02-11 | 桥本荣一郎 |
| 一种电机控制装置，对驱动负载转矩周期性变动的负载的电机执行矢量控制，具备：推定或检测电机速度的电机速度导出机构；按照所述电机速度跟踪从外部赋予的电机速度指令值的方式，生成转矩电流指令值的速度控制机构；接收对应所述负载转矩的变动而变动的控制值，通过强调所述控制值的周期性变动成分，来生成转矩电流修正值的共振型滤波器；通过将所述转矩电流修正值与所述转矩电流指令值叠加，生成叠加转矩电流指令值的转矩电流修正机构；和通过根据所述叠加转矩电流指令值控制所述共振型滤波器，对所述转矩电流修正值的相位进行调整的调整机构；并且，根据所述叠加转矩电流指令值执行所述矢量控制。 | ||||||
| 10 | 用于在停止期间控制变速压缩机的系统和方法 | CN200680013284.1 | 2006-02-24 | CN101163887A | 2008-04-16 | 詹姆士·R·林德赛; 詹姆士·E·梅哈菲; 理查德·马乌奈伊 |
| 一种可操作用于响应于停机信号停机的压缩机系统。该压缩机系统包括可在第一速度和第二速度之间操作的压缩装置(22、34)，以产生一定压力的压缩流体的流动。泄料阀(48)可在关闭位置和打开位置之间移动，在该打开位置中，至少一部分压缩流体的流动通过泄料阀(48)以降低压缩流体流动的压力。传感器(46)定位成测量压力，而控制器(47)可操作用于响应于停机信号，使泄料阀(48)移动到打开位置，并将压缩装置(22、34)的速度设定到低设定点。 | ||||||
| 11 | 涡旋流体机械用的测速器 | CN94104670.2 | 1994-04-26 | CN1065027C | 2001-04-25 | 三浦茂树; 谷垣龙平; 饭尾孝征 |
| 一种涡旋流体机械用的测速器，在上述涡旋流体机械的封闭壳体中设置有一个固定的涡旋件和一个沿一定轨道旋转的涡旋件，这两个涡旋件互相啮合，各带有一个位于它们的端板的内表面上的螺旋卷，上述沿轨道旋转的涡旋件转动时，通过一个外表面上设置有上述旋转涡旋件的欧氏环检测它的转动情况，其中，上述的欧氏环由磁性材料制成，并且，有一个电磁感应型的旋转信号检测机构安装在与上述欧氏环相对的地方。 | ||||||
| 12 | Motor control device and compressor | JP2007210307 | 2007-08-10 | JP2009044935A | 2009-02-26 | HASHIMOTO EIICHIRO |
| <P>PROBLEM TO BE SOLVED: To automatically obtain reduction in power consumption and in vibration. <P>SOLUTION: A motor drive system is provided with a motor (1) that drives a load whose load torque periodically fluctuates and a motor control device (3a). Computing a torque current command value (iδ<SP>*</SP>) from the difference between an estimated motor speed (ω<SB>e</SB>), and a motor speed command value (ω<SP>*</SP>), the motor control device extracts a fluctuating component deriving from a load torque fluctuation by the difference, by using a resonance filter (30) and superimposes the extracted value on the torque current command value (iδ<SP>*</SP>) as a torque current offset value (iδ<SB>C</SB>). Then, the motor control device is provided with a phase control part (32) that adjusts the phase of the torque current offset value, by controlling a resonance filter, based on the superimposed torque current command value. <P>COPYRIGHT: (C)2009,JPO&INPIT | ||||||
| 13 | Compressor device and control device used thereto | JP6338399 | 1999-03-10 | JPH11294342A | 1999-10-26 | BROUCKE STIJN |
| PROBLEM TO BE SOLVED: To reduce the deviation between a rated pressure and an air tank pressure under the different loadings, and to prevent a large rise of the air tank pressure even though the loading is reduced. SOLUTION: An air pressure control throttle valve 9 is provided in a suction pipe 7, and a motor has an air pressure control governor 6. Both the governor 6 and the throttle valve 9 are connected to a compressed air tank 14 through a compressed air pipe 26 and a control device 18, and the control device 18 includes an electric air pressure valve 19 in the compressed air pipe 26 connected to an electronic controller 20, while a pressure gauge 21 is connected to the compressed air tank 14, and a pressure gauge 22 is provided in the compressed air pipe 26 between a valve 19, and the governor 6 and the throttle valve 9. A controller 20 is connected to both pressure gauges, and a means to control the electric air pressure valve 19, as the functions of the measured air tank pressure, the measured regulation pressure, and the rated pressure regulated electronically, is provided. COPYRIGHT: (C)1999,JPO | ||||||
| 14 | System and method for control and optimization of PCP pumped well operating parameters | US14325794 | 2014-07-08 | US10107286B2 | 2018-10-23 | Bernardo Martin Mancuso; Kelly Alexander Woolsey |
| A method of controlling the production efficiency of a well includes determining one or more parameters of a pump model for a pump of the well, determining an inflow rate of liquid into the well, and adjusting a pumping speed of the pump based on the one or more parameters of the pump model to maintain a outflow rate of liquid from the well at a desired fraction of the inflow rate. | ||||||
| 15 | Liquid Ring Vacuum Pump with Cavitation Regulation | US14364083 | 2012-12-12 | US20140377084A1 | 2014-12-25 | Heiner Kösters; Matthias Tamm; Daniel Schütze |
| A method for operating a liquid ring vacuum pump employs taking vibration measurements of the pump and comparing the measurements with a prescribed cavitation threshold. In addition, a measurement representing the liquid content in the gas to be conveyed is taken. This measurement is compared with a prescribed threshold. The rotational speed of the liquid ring vacuum pump is reduced if the prescribed cavitation threshold has been exceeded and the liquid content is less than the prescribed threshold. The rotational speed is increased if the prescribed cavitation threshold has been exceeded and the liquid content is greater than the prescribed threshold. A liquid ring vacuum pump is designed for implementing the method. Due to the regulation depending on the oscillations of the pump, the pump can be operated near the cavitation boundary without any risk of damage. | ||||||
| 16 | SYSTEM AND METHOD OF OPERATION OF MULTIPLE SCREW COMPRESSORS WITH CONTINUOUSLY VARIABLE SPEED TO PROVIDE NOISE CANCELLATION | US11626482 | 2007-01-24 | US20080175717A1 | 2008-07-24 | Harold Robert Schnetzka; E. Curtis Eichelberger; Paul Nemit |
| A system for cancelling or attenuating noise in at least two positive displacement compressors proximately located from each other for use with a heating or cooling system. A lead compressor and a lag compressor have a controllable rotational speed and phase of operation. A controller selectably controls the rotational speed and the phase of operation of each of the compressors. The controller controls the rotational speed of the compressors at substantially the same speed for each compressor, with a phase-lock loop and a comparator circuit for each compressor. The controller controls the phase of operation of the compressors through an oscillator so that the lead and lag compressor pressure pulses are spaced between successive outlet pressure pulses to effectively double the combined pulsation frequency for noise attenuation. | ||||||
| 17 | Rapidly pumping out an enclosure while limiting energy consumption | US11396574 | 2006-04-04 | US20060222506A1 | 2006-10-05 | Jean-Luc Rival |
| A vacuum pumping device of the invention comprises a motor (1) driving a multi-stage dry mechanical pump (2) in which the stages (5, 6, 7, 8) are connected successively in parallel and then in series in a plurality of successive configurations, each of which is selected to optimize the pumping speed in the current pressure range. This makes it possible to lower pressure inside an enclosure (100) quickly while reducing the volume of the pump and the energy consumed by the pump by about 40% compared with a traditional pump having a speed that is sufficient to obtain the same rapidity of pumping. | ||||||
| 18 | System and method for noise attenuation of screw compressors | US10728157 | 2003-12-04 | US20050123407A1 | 2005-06-09 | Harold Schnetzka; E. Curtis Eichelberger; Paul Nemit |
| A system is provided for attenuating noise in at least two positive displacement compressors proximately located from each other for use with at least one heating or cooling system. A lead compressor and a lag compressor have a selectably controllable rotational speed and a selectably controllable phase of operation. A controller selectably controls the rotational speed and the phase of operation of each of the compressors. The controller controls the rotational speed of the compressors at a predetermined rotational speed that is substantially the same for each of the compressors. The controller controls the phase of operation of the compressors by shifting the phase of operation of the lag compressor so that an outlet pressure pulse operatively produced by the lag compressor is substantially evenly spaced between successive outlet pressure pulses operatively produced by the reference compressor. | ||||||
| 19 | Auxiliary solenoid controlled variable displacement power steering pump | US09826268 | 2001-04-03 | US20020139604A1 | 2002-10-03 | Steven Thomas Nissen; Brian Stanley Modrzejewski; Shawn Patrick Cap'ser |
| An auxiliary solenoid controlled variable displacement power steering pump, hydraulic systems incorporating same, and method for improving the efficiency of variable displacement power steering pumps. In one embodiment, a rotor is arranged within a pump body, and a cam fitted on an outer periphery of the rotor and movably arranged within the pump body to form a variable volume pump chamber. The cam is biased towards a position within the pump body to create maximum displacement. A mechanism is provided for forcing the cam into a position of fixed minimum or reduced displacement under certain conditions, such as low engine speed and power steering demand. In a preferred embodiment, the mechanism comprises a solenoid driven connecting rod that is operatively connected to the cam. Activation of the solenoid forces the cam to a position of fixed minimum or reduced displacement. | ||||||
| 20 | Balanced vane type oil pumps | US553302 | 1983-11-18 | US4838767A | 1989-06-13 | Takeshi Ohe; Hiroshi Ohsaki |
| Inlet passages and two sets of discharge passages are communicated with a pair of pump chambrs formed in a pump cartridge in a pump body. A pair of spool valves respectively acting as a flow quantity control valve and a pressure sensitive type flow path switchng valve are formed in parallel in the pump body in directions perpendicular to the axis of the pump. | ||||||
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