| 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 | 一种双级内啮合齿轮泵 | CN201610866443.8 | 2016-09-29 | CN106321422A | 2017-01-11 | 蒋劲; 应锐; 邱艳军; 李燕辉; 富友; 孙强强; 刘来全; 郭佳栋 |
| 本发明公开了一种双级内啮合齿轮泵，包括由密封构件封闭起来的外转子、中间转子和内转子，还包括高压封块和低压封块，所述外转子、中间转子和内转子由外向内依次啮合，所述内转子与动力输入设备连接，所述高压封块与密封构件将内转子与中间转子之间分隔为封闭的二级低压区和二级高压区，所述低压封块与密封构件将中间转子与外转子之间分隔为封闭的一级低压区和一级高压区，其中一级低压区进液口连通，所述二级高压区与出液口连通，且所述二级低压区与一级高压区相互连通。与普通齿轮泵相比，双级内啮合齿轮泵具有二次增压的功能，可以达到更高的泵液压力和工作效率，满足高压液压系统的工作要求。 | ||||||
| 2 | 回转式压缩机 | CN200780051742.5 | 2007-02-28 | CN101611229B | 2012-07-04 | 芝本祥孝; 清水孝志; 增田正典; 外岛隆造; 古庄和宏; 山际昭雄; 安田善纪 |
| 本发明公开了一种回转式压缩机。该回转式压缩机，汽缸(21)的环状汽缸室(C1、C2)由环状活塞(22)分隔为外侧汽缸室(C1)和内侧汽缸室(C2)。通过电动机(30)的驱动汽缸(21)做偏心回转，由此改变外侧汽缸室(C1)及内侧汽缸室(C2)的各容积。并且，内侧汽缸室(C2)与外侧汽缸室(C1)的容积比Vr设定为0.7程度，对应于一次回转中负荷扭矩的变动改变电动机(30)的输出扭矩。 | ||||||
| 3 | 一种倒八字型对称入流双吸螺杆水泵及其平顺水流和阻止回流的方法 | CN201611233653.X | 2016-12-28 | CN106762626A | 2017-05-31 | 成立; 李颖源; 卜舸; 车晓红; 赵国锋; 于磊; 吴牧天; 徐文涛 |
| 本发明涉及一种倒八字型对称入流双吸螺杆水泵及其平顺水流和阻止回流的方法，包括双螺杆泵，所述双螺杆泵包括螺杆泵进口、螺杆、螺杆泵出口、螺杆衬套，螺杆衬套的螺杆衬套最外部面向螺杆泵进口，所述螺杆包括从动螺杆、主动螺杆；所述双螺杆泵的螺杆泵进口设有倒八字型对称分流板，所述倒八字型对称分流板由左分流板、中间分流板、右分流板组成，中部分流板与双螺杆泵的螺杆泵进口、螺杆泵出口轴线同轴，且中部分流板沿螺杆泵进口至螺杆衬套最外部布置，左分流板、右分流板设置于中部分流板的两侧，且对称布置。本发明结构上合理、简单并且科学，通过在螺杆泵进水侧设置倒八字型对称分流板，来分离进口入流，改善入流流态，阻止水流回流。 | ||||||
| 4 | 一种人字型入流双吸双螺杆水泵及其平顺水流和阻止振动的方法 | CN201611233640.2 | 2016-12-28 | CN106762625A | 2017-05-31 | 成立; 李颖源; 卜舸; 车晓红; 赵国锋; 于磊; 吴牧天; 徐文涛 |
| 本发明涉及一种人字型入流双吸双螺杆水泵及其平顺水流和阻止振动的方法，包括双螺杆泵，双螺杆泵包括螺杆泵进口、螺杆、螺杆泵出口、螺杆衬套，螺杆衬套的螺杆衬套最外部面向螺杆泵进口，所述螺杆包括从动螺杆、主动螺杆；所述双螺杆泵的螺杆泵进口设有人字型分流板，人字型分流板由左圆弧型分流板、右圆弧型分流板组成，左圆弧型分流板面向螺杆泵进口的一端与右圆弧型分流板面向螺杆泵进口的一端固定连接，且左圆弧型分流板、右圆弧型分流板固定连接处与螺杆泵进口、螺杆泵出口的进出口轴线同轴，左圆弧型分流板、右圆弧型分流板沿进出口轴线对称布置。本发明结构上合理、简单并且科学，保证了双螺杆泵安全平稳地运行，延长了泵的使用寿命。 | ||||||
| 5 | 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。 | ||||||
| 6 | 双转子压缩机低频振动的抑制方法 | CN201610105617.9 | 2016-02-26 | CN105610367A | 2016-05-25 | 陈跃; 刘启武; 王声纲; 朱绯 |
| 本发明涉及空调控制技术领域，提供一种双转子压缩机低频振动的抑制方法，以解决传统双转子压缩机控制方法中，由于基于反电动势检测不准确所导致的电机振动问题，该方法包括：当电机转子估计位置落后或超前电机转子真实位置时，选择Idc，使下式成立：KE＞(Lq-Ld)(Iqc+Idc)，本发明提出的技术方案通过选择合适的d轴控制电流命令值Idc，使电机运行轴误差趋近于0从而控制电机的运行噪声。 | ||||||
| 7 | 硬质管路减振装置和压缩机 | CN201610917207.4 | 2016-10-20 | CN106286305A | 2017-01-04 | 钟光明 |
| 本发明涉及一种硬质管路减振装置和压缩机，其中，硬质管路减振装置用于对连接在振动体上的硬质管路进行减振，其包括相对于振动体固定设置的固定基体，固定基体能够使硬质管路在振动体的振动方向上相对于振动体固定。通过设置固定基体，固定基体能够使硬质管路在振动体的振动方向上相对于振动体固定，从而使硬质管路随振动体一同振动，硬质管路在振动体的振动方向上相对于振动体不发生振动，有效避免硬质管路与振动体连接部位受力导致裂管问题的发生，有效提高硬质管路的使用寿命。 | ||||||
| 8 | 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。 | ||||||
| 9 | 泵抽系统及运行方法 | CN200680014635.0 | 2006-04-13 | CN101166902B | 2010-08-04 | S·H·布鲁斯 |
| 一种泵抽系统，包括泵抽机构(30)；用于驱动该泵抽机构的马达(32)；用于给该马达供应变频电源的装置(40)；用于在该马达内为电流设定最大值的控制装置(42；52)；以及用于给该控制装置供应数据的装置(44，46)，该数据代表从该泵抽机构排出的气体的温度以及该泵抽机构的该定子的温度。其中该控制装置(42；52)配置为使用该接收到的数据，以便在该泵抽系统运行过程中调节该最大值。这可以防止在该泵抽系统运行过程中该泵抽机构的转子与定子之间的碰撞。 | ||||||
| 10 | 回转式压缩机 | CN200780051742.5 | 2007-02-28 | CN101611229A | 2009-12-23 | 芝本祥孝; 清水孝志; 增田正典; 外岛隆造; 古庄和宏; 山际昭雄; 安田善纪 |
| 本发明公开了一种回转式压缩机。该回转式压缩机，汽缸(21)的环状汽缸室(C1、C2)由环状活塞(22)分隔为外侧汽缸室(C1)和内侧汽缸室(C2)。通过电动机(30)的驱动汽缸(21)做偏心回转，由此改变外侧汽缸室(C1)及内侧汽缸室(C2)的各容积。并且，内侧汽缸室(C2)与外侧汽缸室(C1)的容积比Vr设定为0.7程度，对应于一次回转中负荷扭矩的变动改变电动机(30)的输出扭矩。 | ||||||
| 11 | 泵抽系统及运行方法 | CN200680014635.0 | 2006-04-13 | CN101166902A | 2008-04-23 | S·H·布鲁斯 |
| 一种泵抽系统，包括泵抽机构(30)；用于驱动该泵抽机构的马达(32)；用于给该马达供应变频电源的装置(40)；用于在该马达内为电流设定最大值的控制装置(42；52)；以及用于给该控制装置供应数据的装置(44，46)，该数据代表从该泵抽机构排出的气体的温度以及该泵抽机构的该定子的温度。其中该控制装置(42；52)配置为使用该接收到的数据，以便在该泵抽系统运行过程中调节该最大值。这可以防止在该泵抽系统运行过程中该泵抽机构的转子与定子之间的碰撞。 | ||||||
| 12 | 電動式圧縮機及びそれを備えた冷凍装置 | JP2016521608 | 2015-02-02 | JP2017508906A | 2017-03-30 | 小津 政雄; 政雄 小津; ユ，ジジアン; ツァン，チェン; グオ，ホン; ツォウ，シンビャオ; ツォン，リャン; ヤン，リリ; ワン，リン |
| 本発明は、電動式圧縮機及びそれを備えた冷凍装置を開示する。当該電動式圧縮機は、ステータ及びロータを備えたモーターと、ロータと回転摺動可能に連結されたクランクを備えており、クランクによって駆動圧縮された圧縮室を内蔵した圧縮機構と、ロータとクランクとを連結するためのトルク緩衝装置と、を含み、圧縮室の圧縮過程において、クランクの回転角とロータの回転角との差は増減する可能性がある位相角である。 | ||||||
| 13 | Electric oil pump | US15021093 | 2015-05-26 | US10047745B2 | 2018-08-14 | Eiji Tamura |
| Provided is a configuration where a stator section is fastened to an electric motor part-accommodating portion at a location where an end surface of the stator section projects outwardly from an end plane of an opening of an electric motor part-accommodating portion thereby bringing the center of gravity of an electric motor part closer to the end plane of the opening of the electric motor part-accommodating portion. With this, the center of gravity of the electric motor part is brought closer to the end plane of the opening of the electric motor part-accommodating portion so as to make a rotor section difficult to receive the influence of oscillations, and consequently a phenomenon where the rotor section is shaken under the influence of oscillations can be restrained. | ||||||
| 14 | ELECTRIC COMPRESSOR AND REFRIGERATION DEVICE HAVING SAME | US15315981 | 2015-02-02 | US20170130717A1 | 2017-05-11 | Masao Ozu; Jijiang Yu; Cheng Zhang; Hong Guo; Xingbiao Zhou; Liang Zhong; Lili Yan; Ling Wang |
| An electric compressor and a refrigeration device having the same are provided. The electric compressor includes: an electric motor having a stator and a rotor; a compressing mechanism having an eccentric shaft rotatably and slidably connected to the rotor and defining a compressing chamber therein, the compressing chamber being configured to perform a compression by the eccentric shaft; and a torque damping device configured to connect the rotor with the eccentric shaft, in which during the compression of the compressing chamber, a difference between a rotation angle of the eccentric shaft and a rotation angle of the rotor is a phase angle which is increased and decreased. | ||||||
| 15 | Liquid ring vacuum pump with cavitation regulation | US14364083 | 2012-12-12 | US09169838B2 | 2015-10-27 | 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 | DAMPER DEVICE FOR ROTATING MACHINE | US13615831 | 2012-09-14 | US20130075209A1 | 2013-03-28 | Junichi SEMURA; Shigeru Kawano; Masashi Higashiyama |
| A damper device is coaxial with a central axis of an electric compressor. The damper device includes a base portion and first and second weight portions. The base portion is configured to be fixed to a casing of the electric compressor. The first and second weight portions are oscillatable relative to the base portion. | ||||||
| 17 | Pumping system and method of operation | US11919535 | 2006-04-13 | US20090317261A1 | 2009-12-24 | Simon Harold Bruce |
| A pumping system comprises a pumping mechanism, a motor for driving the pumping mechanism, means for supplying power of a variable frequency to the motor, control means for setting a maximum value for a current in the motor, and means for supplying to the control means data indicative of the temperature of gas exhaust from the pumping mechanism and a temperature of the stator of the pumping mechanism, wherein the control means is configured to use the received data to adjust the maximum value during operation of the pumping system. | ||||||
| 18 | Hermetic Compressor for Positive Displacement | US15981968 | 2018-05-17 | US20180335233A1 | 2018-11-22 | Rodrigo KREMER; Ricardo Mikio DOI; Dietmar Erich Bernhard LILIE |
| A hermetic compressor for positive displacement is disclosed whose airtight housing is specially altered so that its natural frequencies of vibration are distributed at frequencies above 4200 Hz and whose “capacitance density” is greater than 160 W/L. | ||||||
| 19 | PUMP INTEGRITY DETECTION, MONITORING AND ALARM GENERATION | US14871641 | 2015-09-30 | US20170090457A1 | 2017-03-30 | Pradeep Pandurangan; Gregory E. Griffith; Thomas Jaeger; Gulshan Singh |
| An embodiment includes a method of monitoring a fluid pump that includes receiving time domain measurement data indicating vibrations occurring in a fluid pump, and filtering the measurement data to remove measurement data components having frequencies below a threshold frequency, the removed measurement data components associated with cyclical motions of the fluid pump. The method also includes dividing the filtered measurement data into a plurality of subsets, each subset corresponding to a pump cycle, and estimating a peak count for each subset, the peak count being a number of peaks having an amplitude that exceeds a selected amplitude threshold, the amplitude threshold associated with impacts between internal components of the pump. The method further includes comparing the peak count with an expected peak count, and determining whether the pump is in a condition selected from at least one of a wear condition and a failure condition based on the comparison. | ||||||
| 20 | Electric Oil Pump | US15021093 | 2015-05-26 | US20160215776A1 | 2016-07-28 | Eiji TAMURA |
| Provided is a configuration where a stator section is fastened to an electric motor part-accommodating portion at a location where an end surface of the stator section projects outwardly from an end plane of an opening of an electric motor part-accommodating portion thereby bringing the center of gravity of an electric motor part closer to the end plane of the opening of the electric motor part-accommodating portion. With this, the center of gravity of the electric motor part is brought closer to the end plane of the opening of the electric motor part-accommodating portion so as to make a rotor section difficult to receive the influence of oscillations, and consequently a phenomenon where the rotor section is shaken under the influence of oscillations can be restrained. | ||||||
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