| 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 | 平滑运转的旋转液压机械 | CN90107970.7 | 1990-09-25 | CN1050757A | 1991-04-17 | 李德裕 |
| 一种旋转式液压机械包括两个互相吻合的转子(2，3)旋转地装设在壳体的一个双圆筒中空部(10)里，各转子(2或3)含有两个凸部(2a或3a)分置于转子的长轴两相对端，有一腰部于转子短轴两端凹设有两个浅凹部(2b或3b)使一转子(2)与另一转子(3)单点接触以平滑旋转，该中空部与流体出口(13)之间设有一压力平衡室(14)借助一隔板(15)以分开该室(14)与中空部，因此泵送的流体突增高压时，可通过隔板上的许多回流孔(16)使流体回流入中空部中以缓冲高压并预防水(气)。 | ||||||
| 2 | 旋转活塞和缸体装置 | CN201210266333.X | 2007-02-16 | CN102787867A | 2012-11-21 | 史蒂芬·弗兰西斯·林赛 |
| 一种旋转活塞和缸体组件(1)，包括两个旋转活塞和缸体装置(2a，2b)，各个装置包括转子(7)和定子(10)，所述定子至少部分地界定了环形缸体空间(3)，所述转子是环形，并且所述转子包括至少一个从转子环延伸到环形缸体空间中的活塞(8)，使用中，在所述转子相对所述定子转动时，所述至少一个活塞圆周向地移动通过所述环形缸体空间，所述转子本体相对所述定子密封，并且所述装置进一步包括缸体空间活板装置(5)，其能够相对所述定子移动到所述活板装置分隔所述环形缸体空间的关闭位置，以及移动到活板装置让所述至少一个活塞通过的打开位置，所述缸体空间活板装置包括活板片，其中所述装置通过传送通道连接。 | ||||||
| 3 | 平滑运转的旋转液压机械 | CN90107970.7 | 1990-09-25 | CN1018467B | 1992-09-30 | 李德裕 |
| 一种旋转式液压机械包括两个互相吻合的转子(2，3)旋转地装设在壳体的一个双圆筒中空部(10)里，各转子(2或3)含有两个凸部(2a或3a)分置于转子的长轴两相对端，有一腰部于转子短轴两端凹设有两个浅凹部(2b或3b)使一转子(2)与另一转子(3)单点接触以平滑旋转，该中空部与流体出口(13)之间设有一压力平衡室(14)借助一隔板(15)以分开该室(14)与中空部，因此泵送的流体突增高压时，可通过隔板上的许多回流孔(16)使流体回流入中空部中以缓冲高压并预防水(气)。 | ||||||
| 4 | 抑制截留流体故障的无声齿轮泵或马达 | CN201480021941.1 | 2014-04-16 | CN105164418B | 2017-03-29 | 林洛福 |
| 本发明提供了一种低噪音、低振动和高效率齿轮泵或马达或齿轮制冷压缩机，轴齿轮和从动齿轮在由壳体和相对的侧壁形成的齿轮腔室中可转动地啮合，将流体从入口腔室传递到出口腔室；啮合齿轮的齿侧间隙，啮合齿轮具有不泄露流体的余隙；封闭腔室，其设置在至少一个侧壁的内部部分中；在侧壁上设置的开口，连通通道从所述开口延伸到封闭腔室；以及在所述封闭腔室中的至少一个弹性盘形胶囊，具有成对的弹性盘形凹板，所述弹性盘形凹板相互邻接并且相对于彼此密封，其内有气体，在所述空隙的被截留时期期间，受到其内的流体压力而使所占据的体积弹性变化，从而吸收或排出被截留空隙中挤压的流体，借此抑制压力变化、脉冲和气泡生成，消除齿跳动接触。 | ||||||
| 5 | 抑制截留流体故障的无声齿轮泵或马达 | CN201480021941.1 | 2014-04-16 | CN105164418A | 2015-12-16 | 林洛福 |
| 使用成对的啮合外齿轮的流体传递系统，由于不具有传递流体用的往复运动部件而降低了旋转振动、因截留流体现象引起的高噪音、和由于以前在齿轮制造工序产生的不希望的大齿侧间隙所引起的齿跳动接触，这限制了例如在要求安静环境的工业领域(例如电动汽车或房间服务)中的使用。因此，本发明提供了一种齿轮泵或马达或齿轮制冷压缩机，其包括轴齿轮和从动齿轮，所述轴齿轮和从动齿轮在齿轮腔室中可转动地啮合，将流体从入口腔室传递到出口腔室，其中所述齿轮腔室由壳体和相对的侧壁形成；啮合齿轮的齿侧间隙，啮合齿轮具有不泄露流体的余隙；封闭腔室，其设置在至少一个侧壁的内部部分中；在侧壁上设置的开口，连通通道从所述开口延伸到封闭腔室；以及至少一个弹性盘形胶囊，其容纳在所述封闭腔室中，具有成对的弹性盘形凹板，所述弹性盘形凹板相互邻接并且相对于彼此密封，其内有气体，在所述空隙的被截留时期期间，受到其内的流体压力而使所占据的体积弹性变化，从而吸收或排出被截留空隙中挤压的流体，借此被截留在空隙中的流体被不泄露流体的齿侧间隙隔绝，抑制向内或向外的压力变化，其体积变化在被截留时期期间由弹性盘形胶囊的压缩或膨胀进行补偿，抑制压力脉冲和气泡生成，并且消除齿跳动接触，实现了低噪音、低振动和高效率的齿轮泵或马达或制冷压缩机。 | ||||||
| 6 | 通过罗茨式风机和膨胀机相位匹配的连通管道的噪声消除 | CN201410182566.0 | 2014-03-14 | CN104047855A | 2014-09-17 | R·C·格罗夫三世; W·N·埃博根 |
| 本发明提供一种容积式组件，包括：罗茨式增压器装置；罗茨式膨胀机装置；从增压器流体入口延伸出的第一导管，第一导管提供流体到罗茨式增压器装置；和从膨胀机流体出口延伸出的第二导管，第二导管引导流体离开罗茨式膨胀机装置，其中第一导管布置成邻近所述第二导管，和其中第一导管限定出第一开孔和第二导管限定出第二开孔，所述第一和第二开孔大致对准；和在第一和第二导管之间布置在所述第一和第二开孔中的柔性膜，所述柔性膜将第二导管与第一导管密封隔开，和当流体在第一和第二导管中流动时柔性膜挠曲以抵消与流体流动有关的噪声。 | ||||||
| 7 | 旋转活塞和缸体装置 | CN200780013625.X | 2007-02-16 | CN101421492A | 2009-04-29 | 史蒂芬·弗兰西斯·林赛 |
| 一种旋转活塞和缸体组件(1)，包括两个旋转活塞和缸体装置(2a，2b)，各个装置包括转子(7)和定子(10)，所述定子至少部分地界定了环形缸体空间(3)，所述转子是环形，并且所述转子包括至少一个从转子环延伸到环形缸体空间中的活塞(8)，使用中，在所述转子相对所述定子转动时，所述至少一个活塞圆周向地移动通过所述环形缸体空间，所述转子本体相对所述定子密封，并且所述装置进一步包括缸体空间活板装置(5)，其能够相对所述定子移动到所述活板装置分隔所述环形缸体空间的关闭位置，以及移动到活板装置让所述至少一个活塞通过的打开位置，所述缸体空间活板装置包括活板片，其中所述装置通过传送通道连接。 | ||||||
| 8 | Exhaust energy recovery system for combustion engine | US10279859 | 2002-10-25 | US07104060B2 | 2006-09-12 | Masahiro Ogawa; Yukio Shimokawa |
| An exhaust energy recovery system for a combustion engine having an exhaust passage has a displacement expansion device and a generator. The expansion device is located in the exhaust passage. Exhaust gas is introduced into the expansion device. The expansion device has an expansion chamber the volume of which varies in accordance with the pressure of exhaust gas and generates power in accordance with the volume variation of the expansion chamber. The generator generates electricity in accordance with the power generated by the expansion device. This efficiently recovers exhaust gas and effectively uses the recovered exhaust gas. | ||||||
| 9 | Reversible rotary motor | US3592035 | 1935-08-13 | US2077733A | 1937-04-20 | AMTSBERG LESTER A |
| 10 | Silent gear pump or motor suppressing troubles of trapping fluid | US14785303 | 2014-04-16 | US09945230B2 | 2018-04-17 | Nag-Bok Lim |
| Fluid delivery devices using a pair of meshed external gears, in spite of no reciprocating component for fluid delivery enabling low rotational vibration, the high noise due to the trapping phenomenon, and the teeth bouncing contact due to undesired large backlash heretofore afforded in the gear manufacturing process, restrict the employments in the industrial field requiring quiet environment such as electric motor vehicles or room services.Accordingly, a gear pump or motor or a gear refrigerating compressor comprising a shaft gear and a driven gear meshed rotatably within a gear chamber formed with a housing and opposite side walls, which delivers fluids from a inlet chamber to a outlet chamber; a backlash of the meshed gears having fluid-leak-tight clearance; a closed chamber provided in a internal portion of at least a side wall; an opening provided on a side wall from which a communication passage extends to a closed chamber; and at least a elastic disc capsule contained in the closed chamber, comprising a pair of concaved elastic disc plate abutted and sealed against each other with gas inside, of which occupying volume varies elastically subject to the fluid pressure therein enabling to absorb or expel the squeezed fluid in the trapped interstice during the trapping period of the interstice, whereby the fluid entrapped in the interstices isolated by the fluid-leak-tight backlash suppressing the pressure transmission inwardly or outwardly, whereof volumetric variation during the trapping period is compensated by the compression or expansion of the elastic disc capsule, suppressing pressure pulse and air bubble generation and eliminating the teeth bouncing contact, achieving a low noise, low vibration and high efficiency gear pump or motor or refrigerating compressor. | ||||||
| 11 | Pulsation attenuation | US12189630 | 2008-08-11 | US09567996B2 | 2017-02-14 | Glen F. Chatfield; John G. Crandall |
| A system, apparatus, and method for attenuating pulsations in a pumping system. | ||||||
| 12 | NOISE CANCELLATION BY PHASE-MATCHING COMMUNICATING DUCTS OF ROOTS-TYPE BLOWER AND EXPANDER | US14854680 | 2015-09-15 | US20160003254A1 | 2016-01-07 | Rodney Champlin GLOVER, III; William Nicholas EYBERGEN |
| A volumetric assembly includes: a roots-type supercharger device; a roots-type expander device; a first duct extending from the supercharger fluid inlet, the first duct supplying fluid to the roots-type supercharger device; and a second duct extending from the expander fluid outlet, the second duct directing fluid away from the roots-type expander device, wherein the first duct is positioned adjacent to the second duct, and wherein the first duct defines a first aperture and the second duct defines a second aperture, the first and second apertures being generally aligned; and a flexible membrane positioned between the first and second ducts in the first and second apertures, the flexible membrane sealing the first duct from the second duct, and the flexible membrane flexing as fluid flows within the first and second ducts to attenuate noise associated with the fluid flows. | ||||||
| 13 | Rotary piston and cylinder devices | US12279426 | 2007-02-16 | US09057268B2 | 2015-06-16 | Stephen Francis Lindsey |
| A rotary piston and cylinder assembly having two rotary piston and cylinder devices, each device including a rotor and a stator, the stator at least partially defining an annular cylinder space, the rotor being in the form of a ring, and the rotor having at least one piston which extends from the rotor ring into the annular cylinder space. In use the at least one piston is moved circumferentially through the annular cylinder space on rotation of the rotor relative to the stator, the rotor body being sealed relative to the stator, and the device further having cylinder space shutter means which is capable of being moved relative to the stator to a closed position in which the shutter means partitions the annular cylinder space, and to an open position in which the shutter means permits passage of the at least one piston, the cylinder space shutter means including a shutter disc, wherein the devices are connected by a transfer passage. | ||||||
| 14 | Pulsation Attenuation | US14153370 | 2014-01-13 | US20140127047A1 | 2014-05-08 | Glen F. Chatfield; John G. Crandall |
| A pump efficiency improvement device. The pump efficiency improvement device includes first and second junctions having a main connector, a first branch connector, and a second branch connector; and first and second branches extending between the first and second junctions. A header has a first end coupled to the pump and a second end coupled to the main connector of the first junction, the header having a length that improves performance at the pump. | ||||||
| 15 | Pneumatic vane motor with by-pass means | US11916926 | 2005-06-09 | US07811070B2 | 2010-10-12 | Anders Urban Nelson |
| A pneumatic vane motor with a stator cylinder having an air inlet opening and an air outlet opening, a rotor eccentrically journalled in the cylinder and carrying a number of sliding vanes which divide the cylinder into moving cells, wherein the cylinder comprises a by-pass passage located between the air inlet opening and the air outlet opening and arranged to leak air from a pressurized working cell into a preceding cell before the working cell reaches the outlet opening, thereby using a preceding cell as an expansion volume for sound attenuation. | ||||||
| 16 | Positive displacement expander | US11664302 | 2005-09-30 | US07802447B2 | 2010-09-28 | Eiji Kumakura; Masakazu Okamoto; Tetsuya Okamoto; Katsumi Sakitani |
| A casing (31) houses therein an expansion mechanism (60) and a compression mechanism (50). The expansion mechanism (60) has a rear head (62) in which a pressure snubbing chamber (71) is provided. The pressure snubbing chamber (71) is divided by a piston (77) into an inflow/outflow chamber (72) which fluidly communicates with an inflow port (34) and a back pressure chamber (73) which fluidly communicates with the inside of the casing (31). The piston (77) is displaced in response to suction pressure variation whereby the volume of the inflow/outflow chamber (72) varies. This enables the inflow/outflow chamber (72) to directly perform supply of refrigerant to or suction of refrigerant from the inflow port (34) which is a source of pressure variation, thereby making it possible to effectively inhibit suction pressure variation. | ||||||
| 17 | Positive displacement expander | US11664302 | 2005-09-30 | US20090178433A1 | 2009-07-16 | Eiji Kumakura; Masakazu Okamoto; Tetsuya Okamoto; Katsumi Sakitani |
| A casing (31) houses therein an expansion mechanism (60) and a compression mechanism (50). The expansion mechanism (60) has a rear head (62) in which a pressure snubbing chamber (71) is provided. The pressure snubbing chamber (71) is divided by a piston (77) into an inflow/outflow chamber (72) which fluidly communicates with an inflow port (34) and a back pressure chamber (73) which fluidly communicates with the inside of the casing (31). The piston (77) is displaced in response to suction pressure variation whereby the volume of the inflow/outflow chamber (72) varies. This enables the inflow/outflow chamber (72) to directly perform supply of refrigerant to or suction of refrigerant from the inflow port (34) which is a source of pressure variation, thereby making it possible to effectively inhibit suction pressure variation. | ||||||
| 18 | Vane type rotary machine | US10492631 | 2002-10-15 | US07056107B2 | 2006-06-06 | Masao Shinoda; Chishiro Yamashina; Shimpei Miyakawa |
| The present invention relates to a vane-type rotary machine suitable for use in applications where a low-viscosity fluid such as water is used as a working fluid. According to the present invention, a vane-type rotary machine having a rotor (11) mounted with vanes and rotatably housed in a cam casing (10) includes a motor supply opening (or pump discharge opening) (30) for a working fluid, a motor return opening (or pump suction opening) (20) formed in the cam casing for a working fluid, and branch flow passages (23, 25, 33 and 35) branched from the motor supply opening (or pump discharge opening) and the motor return opening (or the pump suction opening) and communicating with vane chambers (22, 24, 32 and 34). The distances of the branch flow passages are identical to each other. | ||||||
| 19 | Rotary motor | US3601512D | 1969-09-05 | US3601512A | 1971-08-24 | KEHL HENRY |
| A rotary device for use as a pump or motor including vane structure pivoted to a rotor and a speed ring for reducing friction between a motor housing and the rotor vane structure. The speed ring is positioned between the motor housing and rotor and bearings are provided in the speed ring to permit free rotation of a portion of the speed ring within the housing. The rotor vanes are provided in pairs at the radially outer portions of alternate radially inner and outer rotor portions for pivotal movement toward and away from the speed ring on rotation of the rotor which is displaced axially from the axis of the housing and speed ring which are concentric. Connecting pressure-equalizing grooves are provided in the rotor and side covers of the motor structure operable to equalize the pressure between radially outer and radially inner portions of the rotor separated by vanes over a portion of the angular rotation of the rotor.
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| 20 | Device for damping vibrations, fluctuations of pressure and fluctuation of deliveryvolume or suction volume of rotary piston machines | US5411160 | 1960-09-06 | US3145662A | 1964-08-25 | KARL EICKMANN |
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