序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
21 Procédé de régulation d'une installation de traitement de fluide EP01400124.2 2001-01-17 EP1122440A1 2001-08-08 Despreaux, Frédéric; Derive-Teuscher, Nathalie; Monereau, Christian

Une machine de compression (compresseur 4 et/ou pompe 5) de l'installation (1) de traitement de fluide, typiquement par adsorption à variation de pression, comporte au moins un détecteur (7) de jeu entre une pièce mobile (6) et un stator fournissant un signal de mesure exploité pour agir, en fonction de cette mesure, sur le fonctionnement de l'installation et notamment raccourcir automatiquement les phases de sur-régime de la machine.

Application notamment à la séparation de composants de l'air.

22 Co-Rotating Compressor US15877870 2018-01-23 US20180223848A1 2018-08-09 Roy J. DOEPKER; Robert C. STOVER
A compressor may include first and second compression members, first and second bearing assemblies, a sensor, and processing circuitry. The second compression member cooperates with the first compression member to define a compression pocket. The first and second bearing assemblies rotatably support the first and second compression members, respectively. The first bearing assembly may include a bearing rotor and a bearing stator. The bearing stator may surround the bearing rotor and may include poles each having a winding. The sensor may measure a radial position of the bearing rotor relative to the bearing stator. The processing circuitry may be in communication with the sensor and may control electrical current supplied to the windings based on the radial position measured by the sensor to adjust the radial position of the bearing rotor relative to the bearing stator.
23 GEAR PUMP BEARING US15729117 2017-10-10 US20180100504A1 2018-04-12 Martin K. YATES
The present invention provides a gear pump having one or more gears with bearing shafts supported by respective pressure-loaded gear pump bearing blocks. Each pressure-loaded bearing block has: a bore adapted to receive the bearing shaft of a gear of the pump; a thrust face at one end adapted to slidingly engage with a side surface of the gear, and an opposing rear face at the other end, the pump being adapted such that, in use, pressurised fluid is supplied to the rear face to provide a hydraulic load urging the thrust face of the bearing block towards the side surface of the gear; and a seal carried by the rear face, the seal, in use, partitioning higher fluid pressure and lower fluid pressure portions of the rear face. The gear pump further has a pressure regulating valve arranged such that, in use, the fluid pressure difference between the higher and lower fluid pressure portions of the rear face of the bearing block is adjustable by the valve to vary said hydraulic load.
24 Eccentric Screw Pump And Method For Adapting The Operating State Of An Eccentric Screw Pump US15547419 2016-01-29 US20180010604A1 2018-01-11 Stefan Voit; Christian Kneidl; Hisham Kamal; Christian Bindig; Mikael Tekneyan
The invention pertains to an eccentric screw pump with a stator-rotor system, which includes a rotor with a rotor screw and a stator with an internal thread. The stator has a support element and an elastomer part, wherein the support element encloses the elastomer part sectionally over its entire circumference. The stator-rotor system has a mechanism for adjusting the stator, which is coupled to at least one sensor for determining actual operating parameters of the stator-rotor system by means of a control unit that activates the adjusting mechanism with consideration of the actual operating parameters determined with the aid of at least one sensor.
25 GEAR PUMP US14454988 2014-08-08 US20140348686A1 2014-11-27 Dan Paval; Ivan Polancec
A gear pump for pumping a fluid while adjustably controlling a gap between gears and end plates of the gear pump housing. The gear gap is controlled by a gear gap adjustment mechanism operably associated with a gear shaft to move the gear and shaft along a longitudinal axis of the shaft. The gear pump can also include a removable and replaceable friction shield to adjust the gap between the gear and the end plate. The gear pump can further include a dynamic shaft seal assembly for adjusting the sealing about the shaft.
26 Pumping system and method of operation US11919535 2006-04-13 US08753095B2 2014-06-17 Simon Harold Bruce
A pumping system includes a pumping mechanism, a motor for driving the pumping mechanism, a device for supplying power of a variable frequency to the motor, a control device for setting a maximum value for a current in the motor, and a device for supplying to the control device 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 device is configured to use the received data to adjust the maximum value during operation of the pumping system.
27 Pressure sealed tapered screw pump/motor US11817036 2006-03-09 US07828535B2 2010-11-09 Alan Notis
A fluid pump (10) or motor (100) includes a pair of enmeshed tapered rotors (22,24,122,124) having intersecting axes of rotation. The first rotor (22,122) includes a small low pressure end (34,54,134,154) and a larger high pressure end (32,52,132,152) and a spiral thread (36,56,136,156) that increases in width and depth as it progresses from the high pressure end (28,128) to the low pressure end (26,126). The second rotor (24,124) enmeshes with the first rotor (22,122), and has an identical structure, except that its threads (36,56,136,156) progress in the opposite direction. Both rotors (22,24,122,124) are mounted on sliding splines (42,62,142,162) which permit them to move, to a limited extent, into and out of their respective receiving cavities. The pressure on the high side (28,128) of the pump (10) or motor (100) tends to urge the rotors (22,122,24,124) against the walls (16,20,116,120) of the receiving cavities thereby improving their sealing capabilities and the overall efficiency of the pump (10) or motor (100) as a whole.
28 Pressure Sealed Tapered Screw Pump/Motor US11817036 2006-03-09 US20080138230A1 2008-06-12 Alan Notis
A fluid pump (10) or motor (100) includes a pair of enmeshed tapered rotors (22,24,122,124) having intersecting axes of rotation. The first rotor (22,122) includes a small low pressure end (34,54,134,154) and a larger high pressure end (32,52,132,152) and a spiral thread (36,56,136,156) that increases in width and depth as it progresses from the high pressure end (28,128) to the low pressure end (26,126). The second rotor (24,124) enmeshes with the first rotor (22,122), and has an identical structure, except that its threads (36,56,136,156) progress in the opposite direction. Both rotors (22,24,122,124) are mounted on sliding splines (42,62,142,162) which permit them to move, to a limited extent, into and out of their respective receiving cavities. The pressure on the high side (28,128) of the pump (10) or motor (100) tends to urge the rotors (22,122,24,124) against the walls (16,20,116,120) of the receiving cavities thereby improving their sealing capabilities and the overall efficiency of the pump (10) or motor (100) as a whole.
29 偏心ねじポンプ及び偏心ねじポンプの作動状態を適合させるための方法 JP2017540150 2016-01-29 JP2018507345A 2018-03-15 シュテファン フォイト; クリスチャン クネイドル; ヒシャム カマル; クリスチャン ビンディグ; ミカエル テクネヤン
ステータ・ロータシステムを備える偏心ねじポンプは、ロータねじを有するロータと、雌ねじを有するステータを備える。ステータは、支持要素及びエラストマ部分を備え、支持要素は、エラストマ部分における全周の少なくとも一部を包囲している。本発明によれば、ステータ・ロータシステムは、ステータを調整するための調整機構を備える。調整機構は、制御ユニットにより、ステータ・ロータシステム、及び/又は、偏心ねじポンプにおける実際の作動パラメータを測定するための少なくとも1個のセンサに結合されている。制御ユニットは、少なくとも1個のセンサによって測定された実際の作動パラメータを考慮しつつ調整機構を作動させることができる。更に、本発明は、偏心ねじポンプの作動状態を適合させるための方法にも関する。【選択図】図3
30 ベーン型圧縮機 JP2013134474 2013-06-27 JP6242606B2 2017-12-06 高橋 知靖; 寺屋 孝則; 大沢 仁
31 ベーン型圧縮機 JP2013134474 2013-06-27 JP2015010485A 2015-01-19 TAKAHASHI TOMOYASU; TERAYA TAKANORI; OSAWA HITOSHI
【課題】駆動軸の前後に作用するをバランスさせることで、ロータの軸方向前後のクリアランスの配分を適正な状態に保持することが可能なベーン型圧縮機を提供する。【解決手段】吸入室29と連通する低圧空間26と、リア側のサイドブロック13と駆動軸2の端部とによって画成された軸端部空間15とを連通する通路52を駆動軸2に設け、駆動軸2の前後に作用する力をバランスさせることで、ロータ3の軸方向前後のクリアランスの配分を適正な状態に保持する。これにより、ロータ3のスムーズな回転を確保しつつ、圧縮効率の低下を招くことがなくなる。【選択図】図1
32 ギヤポンプ及びギヤポンプの運転方法 JP2013126685 2013-06-17 JP2015001204A 2015-01-05 IWASAKI SHIN; IRITANI KAZUO
【課題】簡単な構成でありながら、軸受とギヤロータとの隙間を精度良く調整することの可能なギヤポンプとその運転方法を提供する。【解決手段】ギヤポンプ1は、吸入口及び吐出口を備えたケーシング2と、ギヤ部3と軸部4とが一体に構成され、且つケーシング2の内部で互いに噛み合い状態で配備された一対のギヤロータ5と、ギヤロータ5が回転自在となるように軸部4を支持する軸受部6とを備え、軸受部6が、ギヤロータ5のスラスト方向に沿って移動可能とされている。【選択図】図1
33 A sealed tapered screw pump / screw pressure motor JP2008500949 2006-03-09 JP2008533361A 2008-08-21 ノーティス,アラン
A fluid pump (10) or motor (100) includes a pair of enmeshed tapered rotors (22,24,122,124) having intersecting axes of rotation. The first rotor (22,122) includes a small low pressure end (34,54,134,154) and a larger high pressure end (32,52,132,152) and a spiral thread (36,56,136,156) that increases in width and depth as it progresses from the high pressure end (28,128) to the low pressure end (26,126). The second rotor (24,124) enmeshes with the first rotor (22,122), and has an identical structure, except that its threads (36,56,136,156) progress in the opposite direction. Both rotors (22,24,122,124) are mounted on sliding splines (42,62,142,162) which permit them to move, to a limited extent, into and out of their respective receiving cavities. The pressure on the high side (28,128) of the pump (10) or motor (100) tends to urge the rotors (22,122,24,124) against the walls (16,20,116,120) of the receiving cavities thereby improving their sealing capabilities and the overall efficiency of the pump (10) or motor (100) as a whole.
34 VANE COMPRESSOR EP14818134.0 2014-06-17 EP3015711A1 2016-05-04 TAKAHASHI, Tomoyasu; TERAYA, Takanori; OSAWA, Jin

To provide a vane type compressor that can appropriately keep the allocation of the clearances at the front and rear ends in the axial direction of the rotor by balancing the forces applied to the front and rear sides of the drive shaft. The clearances at the front and rear ends in the axial direction of a rotor 3 are appropriately allocated by providing, in a drive shaft 2, a passage 52 communicating between a low-pressure space 26 communicating with a suction chamber 29 and a shaft end space 15 partitioned by a rear side block 13 and the end of the drive shaft 2 and balancing the forces applied to the front and rear sides of the drive shaft 2. This prevents the compression efficiency from reducing while ensuring the smooth rotation of the rotor 3.

35 Mörtelpumpe zum Pumpen von Aerosol- und Perlit-basierten Dämmputzen EP14196401.5 2014-12-04 EP2886868A1 2015-06-24 Maier, Martin

Mörtelpumpe zum Pumpen von Perlit-basierten Dämmputzen bestehend aus einem Mantelrohr (5) und einer darin sich mit seiner Achse (13) in Rohrrichtung erstreckenden Rotors in Form einer Exzenter-Förderschnecke (1). Die Wandung des Mantelrohrs (5), welches den Rotor als Stator umfasst, ist in Radialrichtung zur Rotorachse nachgiebig ausgeführt, und das Mantelrohr (5) ist von seiner Aussenseite her von einem Umfangsrohr (6) umfasst, so dass der Zwischenraum zwischen Umfangsrohr (6) und Mantelrohr (5) einen Hohlraum (9) bildet, der mit einem Fluid gefüllt ist, dessen Druck variierbar ist. Dadurch kann ein Abstand zwischen Mantelrohr (5) und Förderschnecke (1) eingehalten werden, was ein schonungsvolles Pumpen bei bis zu drei mal längeren Standzeiten als bisher mit Mörtelpumpen erreicht.

36 Procédé de régulation d'une installation de traitement de fluide EP01400124.2 2001-01-17 EP1122440B1 2008-07-23 Despreaux, Frédéric; Derive-Teuscher, Nathalie; Monereau, Christian
37 PRESSURE SEALED TAPERED SCREW PUMP/MOTOR EP06737680.6 2006-03-09 EP1859163A2 2007-11-28 Notis, Alan
A fluid pump (10) or motor (100) includes a pair of enmeshed tapered rotors (22,24,122,124) having intersecting axes of rotation. The first rotor (22,122) includes a small low pressure end (34,54,134,154) and a larger high pressure end (32,52,132,152) and a spiral thread (36,56,136,156) that increases in width and depth as it progresses from the high pressure end (28,128) to the low pressure end (26,126). The second rotor (24,124) enmeshes with the first rotor (22,122), and has an identical structure, except that its threads (36,56,136,156) progress in the opposite direction. Both rotors (22,24,122,124) are mounted on sliding splines (42,62,142,162) which permit them to move, to a limited extent, into and out of their respective receiving cavities. The pressure on the high side (28,128) of the pump (10) or motor (100) tends to urge the rotors (22,122,24,124) against the walls (16,20,116,120) of the receiving cavities thereby improving their sealing capabilities and the overall efficiency of the pump (10) or motor (100) as a whole.
38 동방향-회전 압축기 KR1020180013621 2018-02-02 KR1020180091738A 2018-08-16
압축기는제1 압축부재및 제2 압축부재, 제1 베어링어셈블리및 제2 베어링어셈블리, 센서, 그리고처리회로를포함할수 있다. 제2 압축부재는제1 압축부재와협동하여압축포켓을정의한다. 제1 베어링어셈블리및 제2 베어링어셈블리는각각제1 압축부재및 제2 압축부재를회전가능하게지지한다. 제1 베어링어셈블리는베어링회전자및 베어링고정자를포함할수 있다. 베어링고정자는베어링회전자를둘러싸며각각권선을갖는자극들을포함할수 있다. 센서는베어링고정자에대한베어링회전자의상대적인방사방향위치를측정할수 있다. 처리회로는센서와통신할수 있고센서에의해측정된방사방향위치에기초하여권선들에공급되는전류를제어하여베어링고정자에대한베어링회전자의방사방향위치를조절할수 있다.
39 자동 조정 시스템을 포함한 편심 스크류 펌프, 그리고 조정 방법 KR1020177021460 2016-01-29 KR1020170096638A 2017-08-24 포이트슈테판; 크나이들크리스티안; 카말히샴; 빈디히크리스티안; 텍네얀미카엘
본발명은로터스크류를구비한로터및 암나사부를구비한스테이터를포함한스테이터/로터시스템을포함하는편심스크류펌프에관한것이다. 스테이터는버팀부재와탄성중합체부를포함하며, 버팀부재는탄성중합체부를일부영역에서완전하게에워싼다. 본발명에따라서, 스테이터/로터시스템은스테이터를조정하기위한조정메커니즘을포함한다. 조정메커니즘은, 개루프컨트롤러를통해, 스테이터/로터시스템및/또는편심스크류펌프의실제작동매개변수들의검출을위한하나이상의센서와연결되며, 조정메커니즘의작동은하나이상의센서에의해검출된실제작동매개변수들을고려하면서개루프컨트롤러를통해실행될수 있다. 또한, 본발명은편심스크류펌프의작동상태를적응시키기위한방법에도관한것이다.
40 기어 펌프 및 기어 펌프의 운전 방법 KR1020140071519 2014-06-12 KR101591182B1 2016-02-02 이와사키신; 이리타니가즈오
간단한구성에의해, 베어링과기어로터의간극을고정밀도로조정가능하게하기위해, 본발명의기어펌프는, 흡입구및 토출구를구비한케이싱, 기어부와축부가일체로구성되고, 또한상기케이싱의내부에서서로맞물림상태로배치된한 쌍의기어로터, 상기기어로터가회전가능해지도록상기축부를지지하는베어링부, 상기베어링부는, 상기기어로터의스러스트방향을따라이동가능하며, 및, 상기베어링부를스러스트방향으로이동시킴으로써, 상기기어로터와상기베어링부의간극을조정하는간극조정수단으로이루어진다.
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