| 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 | 叶片泵 | CN201310698063.4 | 2013-12-18 | CN103883519A | 2014-06-25 | 浅冈勇树 |
| 本发明提供叶片泵。该叶片泵具备外壳、凸轮环、转子、形成多个泵室的多个叶片、构成吸入口的一部分的侧板、在轴向上与外壳以及侧板邻接的中间板、以及罩部件。中间板利用与外壳、侧板、以及罩部件中的至少一个邻接的面，来构成使工作流体流通的流通路的一部分，并且形成有与侧板一同构成吸入口的一部分的贯通孔或者凹部。 | ||||||
| 2 | 螺杆压缩机 | CN200710138474.2 | 2007-08-08 | CN100547244C | 2009-10-07 | 米本龙一郎; 饭冢泰成; 东条健司 |
| 本发明提供一种螺杆压缩机，其要解决的技术问题是，作为螺杆冷却用的螺杆压缩机，能够效率良好的运转。本发明中，螺杆压缩机是螺杆冷却用，具有一对螺杆转子和收纳它的壳体、可对容积比进行改变的容量控制阀、驱动螺杆转子的马达以及可对该马达的转速进行改变的逆变器。该螺杆压缩机与负荷相应，单独或者共用基于逆变器的转速控制构件和基于容量控制阀的机械容量控制构件进行控制，同时，将基于逆变器进行的单独容量控制情况下的最高效率点设定在比额定运转点低的转速一侧，比该最高效率点转速大的区域在从额定转速到高转速侧，仅通过逆变器进行控制。 | ||||||
| 3 | 螺杆压缩机 | CN200710138474.2 | 2007-08-08 | CN101122290A | 2008-02-13 | 米本龙一郎; 饭冢泰成; 东条健司 |
| 本发明要解决的技术问题是，作为螺杆冷却用的螺杆压缩机，能够效率良好的运转。本发明中，螺杆压缩机是螺杆冷却用，具有一对螺杆转子和收纳它的壳体、可对容积比进行改变的容量控制阀、驱动螺杆转子的马达以及可对该马达的转速进行改变的逆变器。该螺杆压缩机与负荷相应，单独或者共用基于逆变器的转速控制构件和基于容量控制阀的机械容量控制构件进行控制，同时，将基于逆变器进行的单独容量控制情况下的最高效率点设定在比额定运转点低的转速一侧，比该最高效率点转速大的区域在从额定转速到高转速侧，仅通过逆变器进行控制。 | ||||||
| 4 | 一种单级水环式真空泵 | CN201511003582.X | 2015-12-28 | CN105464979A | 2016-04-06 | 赵静 |
| 本发明涉及一种单级水环式真空泵，真空泵包括前泵盖(010)、导流盘(020)、叶轮(040)、泵体(030)、机械密封(070)和电机(050)；所述前泵盖(010)连接有固定螺栓(105)，将导流盘(020)固定在所述泵体(030)和所述前泵盖(010)中间；所述叶轮(040)安装在所述电机轴(050)上；所述泵体(030)固定在所述电机(050)的法兰上，形成偏心结构；所述导流盘(020)安装在所述泵体(030)上，所述叶轮(040)在所述泵体(030)内的偏心量为16.4mm。本发明通过设计叶轮在泵体内的偏心量，导流盘和叶轮之间的间隙，导流盘进出气口的位置和尺寸，使得该型号在真空泵极大提高抽气性能。该结构设计，可以通过微调叶轮和导流盘的间隙，以满足不通客户的应用要求。 | ||||||
| 5 | 涡旋式压缩机以及包括该涡旋式压缩机的空调 | CN201210371125.6 | 2012-09-28 | CN103032321B | 2015-11-25 | 张龙熙; 柳秉辰; 郑百永; 金范灿; 高永桓; 金炳秀 |
| 本发明提供一种涡旋式压缩机，其包括：固定涡盘，包括第一涡卷；绕动涡盘，设置为相对于该固定涡盘具有相位差，该绕动涡盘包括第二涡卷，第二涡卷与第一涡卷一起限定出压缩室；吸入部，用以将制冷剂接纳到该压缩室中；驱动轴，用以将旋转力传递到该绕动涡盘；第一注入部，设置在该固定涡盘中的一个位置上，用以将制冷剂引入该压缩室内；以及第二注入部，设置在该固定涡盘的另一位置，用以将制冷剂引入该压缩室内；其中，该第二涡卷设置在该绕动涡盘上，由此在该绕动涡盘的绕动期间，在该第一制冷剂通过该吸入部的接纳完成之前，该第一注入部被打开以引入该第二制冷剂。本发明能够提高制冷/制热性能和制冷/制热效率，并提高制冷剂的注入流速。 | ||||||
| 6 | 涡旋式压缩机以及包括该涡旋式压缩机的空调 | CN201210371125.6 | 2012-09-28 | CN103032321A | 2013-04-10 | 张龙熙; 柳秉辰; 郑百永; 金范灿; 高永桓; 金炳秀 |
| 本发明提供一种涡旋式压缩机，其包括：固定涡盘，包括第一涡卷；绕动涡盘，设置为相对于该固定涡盘具有相位差，该绕动涡盘包括第二涡卷，第二涡卷与第一涡卷一起限定出压缩室；吸入部，用以将制冷剂接纳到该压缩室中；驱动轴，用以将旋转力传递到该绕动涡盘；第一注入部，设置在该固定涡盘中的一个位置上，用以将制冷剂引入该压缩室内；以及第二注入部，设置在该固定涡盘的另一位置，用以将制冷剂引入该压缩室内；其中，该第二涡卷设置在该绕动涡盘上，由此在该绕动涡盘的绕动期间，在该第一制冷剂通过该吸入部的接纳完成之前，该第一注入部被打开以引入该第二制冷剂。本发明能够提高制冷/制热性能和制冷/制热效率，并提高制冷剂的注入流速。 | ||||||
| 7 | SCROLL-TYPE COMPRESSOR | US15553487 | 2016-02-29 | US20180245593A1 | 2018-08-30 | Kenji NAGAHARA |
| A scroll-type compressor includes a compression-chamber-forming member, a housing, an injection passage part, and a relief mechanism. The compression-chamber-forming member forms a compression chamber and has a movable scroll and a fixed scroll. The housing forms a back pressure chamber. Refrigerant to apply back pressure to the compression-chamber-forming member is accumulated in the back pressure chamber. The injection passage part is linked to the compression chamber. The relief mechanism is configured to establish a communication between the compression chamber and the back pressure chamber communicating when injection pressure of the refrigerant flowing from the injection passage part into the compression chamber is higher than the pressure in the back pressure chamber. | ||||||
| 8 | Compressor and refrigeration apparatus using the same | US12597017 | 2008-05-01 | US08424327B2 | 2013-04-23 | Yohei Nishide; Katsumi Kato |
| A compressor includes a casing accommodating a refrigerant passageway, a compression mechanism and a pipe. The compression mechanism is disposed in the interior of the casing to discharge compressed refrigerant into the refrigerant passageway. The pipe extends from inside of the casing to outside of the casing. The pipe includes two ends. One end is a closed end disposed in a predetermined position inside the refrigerant passageway. The other end of the pipe is an opened end disposed outside the casing. The pipe is preferably sized so that a measuring instrument can be inserted into the pipe through the opened end. | ||||||
| 9 | Method for controlling fluid flow through a compressed fluid system | US16590 | 1998-01-30 | US6123510A | 2000-09-26 | Mark R. Greer; James D. Mehaffey; Darrell F. Murray |
| A method for controlling the supply flow through a compressed fluid system having a fluid compressor with a inlet valve, and a host system in signal receiving relation with a supply flow sensor and in signal transmitting relation with a compressor controller. The method includes the following steps: sensing the actual compressed fluid supply flow, sending a first signal representing the actual compressed fluid supply flow from the flow sensor to the host system, sending a second signal, with a current corresponding to the required predetermined required inlet vacuum, from the host system to the compressor controller, sensing the actual vacuum at the fluid compressor inlet, and comparing the actual vacuum at the fluid compressor inlet to a predetermined target vacuum required to produce the desired supply flow through the compressed fluid system, and if the predetermined target vacuum is greater than the actual vacuum, performing the additional step of closing the inlet valve until the actual vacuum is substantially equal to the predetermined target vacuum and if the predetermined target vacuum is less than the actual vacuum, performing the additional step of opening the inlet valve until the actual vacuum is substantially equal to the predetermined target vacuum. | ||||||
| 10 | Vacuum apparatus and a method of controlling a suction speed thereof | US18888 | 1998-02-05 | US6030181A | 2000-02-29 | Armin Conrad |
| A vacuum apparatus including at least one vacuum pump having at least one stage and high-vacuum and fore vacuum connections, and a connection line communicating a point located between the high vacuum and fore vacuum connections with the high vacuum connection; and a method for controlling a suction speed of the at least one vacuum pump. | ||||||
| 11 | METHOD FOR REGULATING THE ROTATIONAL SPEED OF A COMPRESSOR AS A FUNCTION OF THE AVAILABLE GAS FLOW OF A SOURCE AND REGULATION THEREBY APPLIED | US15755273 | 2016-08-11 | US20180283379A1 | 2018-10-04 | Hans Theo MAGITS; Subodh Sharadchandra PATWARDHAN |
| A method for controlling the speed of a compressor with a controller as a function of the available gas flow comprising the following steps: setting a desired value for the inlet pressure; determining the inlet pressure; determining the speed; controlling the speed of the compressor by reducing or increasing it depending on whether the inlet pressure is less than or greater than the set desired value until the inlet pressure is equal to the set desired value; providing the characteristic data of the compressor relating to the efficiency and/or the Specific Energy Requirement (SER) as a function of the speed and the inlet pressure; adjusting the desired value of the inlet pressure on the basis of the aforementioned characteristic data and in such a way that the efficiency of the compressor is a maximum or the SER is a minimum. | ||||||
| 12 | SCROLL COMPRESSOR AND AIR CONDITIONER INCLUDING THE SAME | US13644368 | 2012-10-04 | US20130081425A1 | 2013-04-04 | Yonghee Jang; Byoungjin Ryu; Baikyoung Chung; Beomchan Kim; Younghwan Ko; Byeongsu Kim |
| The scroll compressor includes a fixed scroll including a first wrap, an orbiting scroll disposed to have a phase difference with respect to the fixed scroll, the orbiting scroll including a second wrap defining a compression chamber together with the first wrap, a suction part to receive a refrigerant into the compressor chamber, a driving shaft to transmit a rotation force to the orbiting scroll, a first injection part disposed in one position of the fixed scroll to introduce a refrigerant into the compression chamber, and a second injection part disposed in another position of the fixed scroll to introduce a refrigerant into the compression chamber, where the second wrap is disposed on the orbiting scroll such that the first injection part is opened to introduce the second refrigerant before the receipt of the first refrigerant through the suction part is completed during the orbiting of the orbiting scroll. | ||||||
| 13 | Apparatus for detecting a flammable atmosphere within a compressor, in particular a vacuum pump | US12086743 | 2006-11-09 | US08333573B2 | 2012-12-18 | Clive Marcus Lloyd Tunna; Donovan Collins; Roland Paul Gregor Kusay; Richard Wakefield |
| Apparatus for detecting a flammable atmosphere within a compressor during operation thereof is provided. The apparatus comprising a test chamber which is selectably connected between the compressor and an exhaust duct of the compressor using isolation device; an ignition device which is located within the test chamber for igniting any flammable fluid mixture present therein; and sensor associated with the test chamber for monitoring a parameter indicative of combustion within the test chamber and for outputting a signal indicative of the parameter to a controller. | ||||||
| 14 | COMPRESSOR AND REFRIGERATION APPARATUS USING THE SAME | US12597017 | 2008-05-01 | US20100132389A1 | 2010-06-03 | Yohei Nishide; Katsumi Kato |
| A compressor includes a casing accommodating a refrigerant passageway, a compression mechanism and a pipe. The compression mechanism is disposed in the interior of the casing to discharge compressed refrigerant into the refrigerant passageway. The pipe extends from inside of the casing to outside of the casing. The pipe includes two ends. One is a closed end disposed in a predetermined position inside the refrigerant passageway. The other end of the pipe is an opened end disposed outside the casing. The pipe is preferably sized so that a measuring instrument can be inserted into the pipe through the opened end. | ||||||
| 15 | SCREW COMPRESSOR | US11836189 | 2007-08-09 | US20080038127A1 | 2008-02-14 | Ryuichiro Yonemoto; Yasuaki Iizuka; Kenji Tojo |
| A screw compressor is for use of a screw chiller, and comprises a pair of screw rotors and a casing housing the screw rotors, a capacity control valve for varying a ratio of volume, a motor for driving the screw rotors and an inverter for varying the rotational speed of the motor. The screw compressor is controlled using rotational speed control means by the inverter and mechanical capacity control means by the capacity control valve independently or combined together according to loads. The maximum efficient point in a capacity control performed solely by the inverter is set to a rotational speed side lower than the rated operation point. In a region where the rotational speed is higher than the maximum efficient point, the inverter solely takes control from a rated rotational speed to a high rotational speed side. | ||||||
| 16 | ギアポンプの制御方法 | JP2016042421 | 2016-03-04 | JP2017154469A | 2017-09-07 | 山田 紗矢香; 山口 和郎 |
| 【課題】ギヤポンプの空転を検知して、ギヤポンプを安定して稼働する。 【解決手段】本発明のギアポンプ1の制御方法は、混練設備2の下流側に設けられて、混練設備2で混練された材料を下流側に送るギアポンプ1に対して、ギアポンプ1の回転数を制御するに際しては、ギアポンプ1が空転しているかどうかを判断し、判断の結果に応じてギアポンプ1の回転数を変更することを特徴とする。好ましくは、ギアポンプ1の入側の圧力Pinを計測しておき、計測されたギアポンプ1入側の圧力Pinが目標の圧力設定値P0よりも高くなった場合に、ギアポンプ1が空転しているかどうかを判断するとよい。 【選択図】図1 |
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| 17 | Compressor | JP2008095188 | 2008-04-01 | JP4274284B2 | 2009-06-03 | 勝三 加藤; 洋平 西出 |
| 18 | Screw compressor | JP2006218438 | 2006-08-10 | JP2008038877A | 2008-02-21 | YONEMOTO RYUICHIRO; IIZUKA YASUNARI; TOJO KENJI |
| PROBLEM TO BE SOLVED: To provide efficient operation as a screw compressor for a screw chiller. SOLUTION: The screw compressor is for the screw chiller, and it is provided with a pair of screw rotors, a housing housing the pair, a capacity control valve capable of varying a capacity ratio, a motor driving the screw rotors, and an inverter capable of varying a rotational frequency of the motor. In the screw compressor, control is carried out by singularly using or using both of a rotation frequency control means by the inverter in response to a load and a mechanical capacity control means by the capacity control valve, a maximum efficiency point is set to a lower rotational frequency side than a rated driving point when carrying out singular capacity control by the inverter, and control by only the inverter is carried out until a higher rotational frequency side than a rated rotational frequency in an area of a higher rotational frequency than the maximum efficiency point. COPYRIGHT: (C)2008,JPO&INPIT | ||||||
| 19 | Control method and device for volumetric flow amount of vacuum pump | JP35053897 | 1997-12-19 | JPH10220373A | 1998-08-18 | CONRAD ARMIN |
| PROBLEM TO BE SOLVED: To provide a method and a device which can reproducibly set a volumetric flow amount of a vacuum pump and enable adaption to each vacuum process. SOLUTION: A method and a device are provided to obtain advantageous influence in process inside a vacuum chamber. A part of gas flow is returned to a suctioning flange through a connection piping 8 and a control valve 9 in a vacuum pump 1 composed of one or plurality of stages 2a, 2b, 2c. Pressure on the suctioning side is increased, while a volumetric flow amount in respect to gas to be discharged is reduced by means of the pump 1. It is thus possible to accurately and directly control the volumetric flow amount of the vacuum pump 1. | ||||||
| 20 | Liquid fuel delivery with vapor detection | US15932314 | 2018-02-16 | US20180230996A1 | 2018-08-16 | Don Crowder; Grant Davisson; Jeremy Patten |
| One or more techniques and/or systems are disclosed for providing for improved liquid fuel delivery, by helping to mitigate damage to pumps when operated in an undesired condition. A sensor detects the presence of a liquid fuel at the inlet to the pump during pump operation, and sends the signal to a controller. Based on the detection signal from the sensor, the controller can determine whether a desired amount of liquid is present at the inlet to the pump. If a desired amount of liquid is not identified at the inlet to the pump, the controller may interrupt the power provided by a power supply, which is supplying power to operate the pump, thereby interrupting operation of the pump. | ||||||
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