| 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 | 液压系统 | CN200810191085.0 | 2008-12-19 | CN101509510A | 2009-08-19 | E·克雷默; M·格雷特尔 |
| 本发明涉及一种液压系统，尤其是用于机动车，该液压系统具有一个主动缸和一个从动缸，该主动缸和该从动缸通过一个液压段彼此相连接，在该液压段中这样设置有一个泵和一个伺服阀装置，使得施加在该主动缸上的操作力对该从动缸的作用增强。本发明的特征在于：在该液压段中这样设置有一个具有输入端和输出端的附加泵流和一个转换阀装置，使得施加在该主动缸上的操作力对该从动缸的作用与要求相关地附加地增强。 | ||||||
| 2 | 液压系统 | CN200810191085.0 | 2008-12-19 | CN101509510B | 2013-07-31 | E·克雷默; M·格雷特尔 |
| 本发明涉及一种液压系统，尤其是用于机动车，该液压系统具有一个主动缸和一个从动缸，该主动缸和该从动缸通过一个液压段彼此相连接，在该液压段中这样设置有一个泵和一个伺服阀装置，使得施加在该主动缸上的操作力对该从动缸的作用增强。本发明的特征在于：在该液压段中这样设置有一个具有输入端和输出端的附加泵流和一个转换阀装置，使得施加在该主动缸上的操作力对该从动缸的作用与要求相关地附加地增强。 | ||||||
| 3 | Electromagnetic-hydraulic valve drive for an internal-combustion engine | EP87107613 | 1986-01-30 | EP0244878A3 | 1987-12-23 | Tittizer, Gabriel, Dipl.-Ing.; Junghans, Ewald, Dipl.-Ing. |
| 4 | Hydraulische Drehzahluebersetzungsvorrichtung. | EP86107003 | 1986-05-23 | EP0205942A1 | 1986-12-30 | CHRIST ALFRED DR |
| Die Vorrichtung hat mindestens eine, mittels einer Antriebswelle (1) angetriebene Nockenscheibe (2) in einer Zylinderkolbenpumpe (P). Die Nockenscheibe hat eine Nokkenbahn (3) mit mindestens zwei im wesentlichen sinusförmigen Erhebungen und Einsenkungen am Umfang. Durch Drehen dieser Nockenscheibe (2) wird über mindestens einen Stößel (4) und Kolben (5) und mindestens eine, am Zylinder (6) des Kolbens ventillos angesetzte, mit Hydraulikmedium gefüllte Übertragungsleitung, über ebenfalls ventillos angesetzten Zylinder (8) mit Kolben (9) eines Zylinderkolbenmotors (M) ein Antrieb (10) angetrieben. Die Nokkenbahn (3) ist so ausgelegt, daß bei gleichmäßiger Drehung der Nockenscheibe (2) der Pumpe (P) und der Welle (10) des Motors (M), das Volumen des mit Hydraulikmedium gefüllten Systems, d.h. das Volumen des Pumpenzylinder-Hubraums plus Übertragungsleitungsraums plus Motorzylinder-Hubraums, zeitlich konstant bleibt. | ||||||
| 5 | 착용형 로봇의 유압 구동 장치 | KR1020150037420 | 2015-03-18 | KR101552550B1 | 2015-09-11 | 유재관 |
| 착용형 로봇의 유압 구동 장치가 개시된다. 모터 제어 신호 및 밸브 제어 신호를 생성하는 제어부; 작동유가 저장되는 유압 탱크; 상기 모터 제어 신호에 따라 동작하는 모터; 상기 유압 탱크 내부에 위치하여 상기 모터의 동작에 따라 연동되어 상기 유압 탱크에 저장되어 있는 작동유를 가압하여 공급하는 유압 펌프; 상기 유압 펌프로부터 가압된 작동유를 공급받아 작동하는 복수의 유압 액츄에이터; 및 상기 유압 액츄에이터와 상기 유압 탱크 또는 상기 유압 액츄에이터와 상기 유압 펌프 사이에 위치하여 상기 밸브 제어 신호에 따라 상기 작동유의 흐르는 방향을 제어 가능한 방향 제어 밸브를 포함하는 밸브부;를 포함하며, 작은 크기로 구성됨과 동시에 저소음으로 동작 가능하여 착용형 로봇 등에 적용되기에 용이하다.
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| 6 | Remotely reconfigurable high pressure fluid passive control system for controlling bi-directional piston pumps as active sources of high pressure fluid, as inactive rigid structural members or as isolated free motion devices | US15804426 | 2017-11-06 | US10030645B2 | 2018-07-24 | Kenneth A. Knowles; Robert C. Murtha; Christina Speight |
| A bi-directional pump system that can be configured for a plurality of operating modes. The bi-directional pump system includes a plurality of bi-directional pumps each having their own valving system that are connected to a common high pressure manifold, a low pressure manifold and a suction manifold. Via the respective valve systems, each pump can be configured into: (1) a single-acting pumping mode; (2) a double-acting pumping mode; (3) an inactive free motion mode; and (4) an inactive rigid mode. One exemplary application of the bi-directional pump system is on an articulated wave energy conversion system that consists of three floating barges: a front barge, a center barge and a rear barge where the front barge and center barge are hingedly connected as are the center barge and the rear barge. A first set of the bi-directional pumps span the first hinge connection and the second set of bi-directional pumps span the second hinge connection. The bi-directional pump system intakes sea water and, using wave energy, outputs a high pressure flow of sea water for water desalination and/or for driving electrical generators. | ||||||
| 7 | Hydraulic valve | US14213293 | 2014-03-14 | US09993355B2 | 2018-06-12 | Richard Geiger; David Kraige; Jeremy Frank; Jacob Loverich; Ben Gilbert Macomber; Adam Arabian |
| A valve includes a case comprising a pin bore, a pin configured to move axially in the pin bore, wherein the pin seals the pin bore, a first channel in communication with the pin bore, a second channel in communication with the pin bore, wherein the second channel comprises a restrictor at a location offset from the first channel, a third channel in communication with the pin bore, wherein the third channel comprises a check valve, and the second channel and third channel are in communication with each other. The valve can be a miniature valve that is used in the control of hydraulic fluid in prosthesis, such as a prosthetic ankle joint. | ||||||
| 8 | REMOTELY RECONFIGURABLE HIGH PRESSURE FLUID PASSIVE CONTROL SYSTEM FOR CONTROLLING BI-DIRECTIONAL PISTON PUMPS AS ACTIVE SOURCES OF HIGH PRESSURE FLUID, AS INACTIVE RIGID STRUCTURAL MEMBERS OR AS ISOLATED FREE MOTION DEVICES | US15134909 | 2016-04-21 | US20160230754A1 | 2016-08-11 | Kenneth A. Knowles, JR.; Robert C. Murtha, JR.; Christina Speight |
| A bi-directional pump system that can be configured for a plurality of operating modes. The bi-directional pump system includes a plurality of bi-directional pumps each having their own valving system that are connected to a common high pressure manifold, a low pressure manifold and a suction manifold. Via the respective valve systems, each pump can be configured into: (1) a single-acting pumping mode; (2) a double-acting pumping mode; (3) an inactive free motion mode; and (4) an inactive rigid mode. One exemplary application of the bi-directional pump system is on an articulated wave energy conversion system that consists of three floating barges: a front barge, a center barge and a rear barge where the front barge and center barge are hingedly connected as are the center barge and the rear barge. A first set of the bi-directional pumps span the first hinge connection and the second set of bi-directional pumps span the second hinge connection. The bi-directional pump system intakes sea water and, using wave energy, outputs a high pressure flow of sea water for water desalination and/or for driving electrical generators. | ||||||
| 9 | Polyphase hydraulic drive system | US11326162 | 2006-01-04 | US07464549B1 | 2008-12-16 | Jonathan Sidney Edelson; Wayne Boyer Collier |
| The present invention comprises an input drive system, which provides a plurality of phases of oscillating fluid flow, and an output drive system connected directly to the input drive system that is powered by the plurality of phases of oscillating fluid flow. The input drive system comprises a plurality of pistons that are caused to move in a reciprocating fashion by a power source. The power source may be a rotating power source, such as that provided by an electric motor, a diesel or petrol engine, or a turbine system. The input drive system comprises a cam ring attached to a rotating power source; a plurality of cam rollers in contact with the cam ring; and a plurality of pistons attached to the cam rings. The output drive system comprises one or more pistons that are caused to move in a reciprocating fashion by the oscillating fluid flow provided by the input drive system. The output drive system comprises a cam ring attached to a load; a plurality of cam rollers in contact with the cam ring; and a plurality of pistons attached to the cam rings. | ||||||
| 10 | Dual, coupled check valve for direct drive, reversible power sources for hydraulic systems | US10538734 | 2004-03-18 | US20060070377A1 | 2006-04-06 | Harry Last |
| An invented dual, coupled check valve mechanism is described for a direct drive, reversible hydraulic power source for hydraulic circuits that includes a manifold hydraulically coupled to the respective input/output ports and a reservoir of the hydraulic power source defining a translation passageway having mid-passage drain hydraulically coupled to the reservoir, where each end of the translation passageway has an angled annular valve seat opening to larger diameter plenum containing a check valve ball. A translating rod with a length greater and a circumferential diameter less than that of the translation passageway located in the translation passageway prevents the respective check valve balls from simultaneously seating on the valve seats at the respective ends of the translation passage way. | ||||||
| 11 | Hydraulic drive system | US10121266 | 2002-04-11 | US20020149248A1 | 2002-10-17 | Henry Warn Jackson |
| A hydraulic drive and fluid control system for a mechanism having at least two fluid actuated cylinder includes a bi-directional motor/gear pump. A monolithic block manifold has intersecting bores formed therein in which valving and control mechanism for the fluid circuit is mounted. The fluid control system includes a variety of elements for providing smooth action of the cylinders at start, stop, and intermediate operations. These include piston-style accumulators, self-actuating fluid flow rate control valves and cushion valves. | ||||||
| 12 | Hydraulic valve drive for internal combustion engines | US52247 | 1987-05-18 | US4799462A | 1989-01-24 | Gabriel Tittizer; Ewald Junghans |
| Valve drive for a combustion engine with an hydraulic transmission system between a control member and a valve includes a device for stepping up the hydraulic transmission. | ||||||
| 13 | Electro-magnetic-hydraulic valve drive for internal combustion engines | US52188 | 1987-05-18 | US4791895A | 1988-12-20 | Gabriel Tittizer |
| Valve drive for a combustion engine with an hydraulic transmission system between a control member and a valve includes a device for stepping up the hydraulic transmission. | ||||||
| 14 | Hydraulic power transmission | US535679 | 1974-12-23 | US3956893A | 1976-05-18 | Clifford E. Putnal |
| Power is transmitted between reciprocating crank drives by piston, pump and motor assemblies of the single-acting type interconnected in an open fluid circuit. A valve arrangement in the fluid circuit maintains the pump assembly and the pressure conduits interconnecting the assemblies completely filled with fluid during the return strokes of the pump and motor assemblies. | ||||||
| 15 | Hydraulic stroke increaser | US3782123D | 1972-01-11 | US3782123A | 1974-01-01 | MUSCHALEK B |
| A stroke increaser for use in well pumping systems and the like has a fluid motor, with the cylinder of the fluid motor attached to an actuator, such as the bridle of a walking beam assembly, and the piston of the fluid motor connected to a longitudinally extending hollow polish rod. A fluid pump has a cylinder arranged in the pump assembly and has a piston connected to the other end of the hollow polish rod. A transverse bore is arranged in each end portion of the hollow polish rod. A hydraulic fluid is provided in the cylinders in the hollow polish rod. When the actuator begins an upward stroke, both pistons are in the bottom portion of their respective cylinders. The piston of the fluid pump will be forced upwardly with respect to its associated cylinder by the upward movement of the actuator. The hydraulic fluid will be forced from the cylinder of the fluid pump through the hollow polish rod and into a cylinder of the fluid motor. The piston of the fluid motor will thus be forced upwardly relative to the cylinder of the fluid motor and increase the stroke of sucker rods attached to the piston of the fluid pump. The above process is reversed for a downward stroke of the actuator.
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| 16 | Transducer for converting fluid pressure oscillations into mechanical oscillations | US3511050D | 1968-09-13 | US3511050A | 1970-05-12 | TABERNER JOHN |
| 17 | Apparatus for hydraulic control of the valves of an internal combustion engine or motor compressor | US8563361 | 1961-01-30 | US3119592A | 1964-01-28 | FRANCESCO FRASCHETTI |
| 18 | Hydraulic pressure equalizing system | US1109560 | 1960-02-25 | US3040533A | 1962-06-26 | HEINRICH LUDWIG K |
| 19 | Power transmission | US65963057 | 1957-05-16 | US2910831A | 1959-11-03 | GATWOOD EDWARD H |
| 20 | Hydraulic power transmission. | US1914821376 | 1914-02-27 | US1211679A | 1917-01-09 | CONSTANTINESCO GOGU |
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