| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 181 | Oil-injected compressor with a temperature switch | US11908068 | 2006-03-08 | US08317484B2 | 2012-11-27 | Konrad Liebert; Michael Schmid; Nils Zieglgänsberger; Karl Hering |
| An oil-injected compressor, with an oil circuit for lubrication, and an oil separating device which is used to separate the oil from the compressed air. A self-resetting temperature switch, which is used to switch off the compressor unit when the maximum temperature limit of the incoming compressed air is reached, is provided in the region of the inlet of the compressed air, which contains oil, in the oil separating device. At least one non-self-resetting additional temperature switch is provided in the internal area of the oil separating device, which immediately switches off the compressor unit following a fire or an explosion of the compressed air, which contains oil, and which is contained in the oil separating device. | ||||||
| 182 | SCROLL COMPRESSOR | US13528285 | 2012-06-20 | US20120258004A1 | 2012-10-11 | Kirill M. Ignatiev; James F. Fogt; Masao Akei |
| A compressor may include a shell assembly, a first scroll member located within the shell assembly and including a first end plate and a first spiral wrap extending from the first end plate, and a second scroll member located within the shell assembly, supported for orbital movement relative to the first scroll member and including a second end plate and a second spiral wrap extending from the second end plate and meshingly engaged with the first spiral wrap to form compression pockets. The first scroll member may define a fluid injection port and the second scroll member may define a passage in communication with the fluid injection port and at least one of the compression pockets to provide pressurized vapor from the fluid injection port to the at least one of the compression pockets. | ||||||
| 183 | Scroll compressor including lubrication features | US12938848 | 2010-11-03 | US08226387B2 | 2012-07-24 | Kirill M. Ignatiev |
| A compressor may include a shell assembly, a first scroll member, and a second scroll member. The first scroll member may be located within the shell assembly and may include a first end plate and a first spiral wrap extending from a first side of the first end plate. The first end plate may define an oil groove extending into the first side. The second scroll member may be located within the shell assembly and supported for orbital movement relative to the first scroll member. The second scroll member may include a second end plate and a second spiral wrap extending from the second end plate and meshingly engaged with the first spiral wrap to form compression pockets. | ||||||
| 184 | Reservoir for a replacement fluid for a device and a device, together with an oil separator fitted with such a reservoir | US12224789 | 2007-01-11 | US07901478B2 | 2011-03-08 | Alain Suttels |
| Reservoir for a replacement fluid for a device, where the reservoir (3) is pre-filled with the desired quantity of the relevant replacement fluid (15) And where this reservoir is equipped with detachable coupling devices (29) which make it possible to mount and dismantle the reservoir (3) on the device (1) and where the reservoir (3), in its mounted state, serves as a changeable fluid. | ||||||
| 185 | COMPRESSOR HAVING PISTON ASSEMBLY | US12788786 | 2010-05-27 | US20100303659A1 | 2010-12-02 | Robert C. Stover; Masao Akei; Michael M. Perevozchikov |
| A compressor includes orbiting and non-orbiting scrolls forming first and second fluid pockets therebetween. First and second ports are disposed in the non-orbiting scroll and radially spaced apart from each other. The first port communicates with the first pocket at a first radial position and the second port communicates with the second pocket at a second radial position. A blocking device is movable between a first position preventing communication between the ports and a fluid source and a second position allowing communication between the ports and the fluid source. The first and second pockets have first and second pressures, respectively. One of the pressures may have a disproportionate pressure change compared to the other of the pressures after at least one of the pockets communicates with the fluid source through at least one of the ports. The disproportionate pressure change biases the orbiting scroll relative to the non-orbiting scroll. | ||||||
| 186 | Roots type gear compressor with helical lobes having communication with discharge port | US12588788 | 2009-10-28 | US20100116254A1 | 2010-05-13 | Jirka Kaplan; Les Davenport |
| A gear compressor or supercharger for compressing compressible fluids such as air, having a pair of intermeshing helical lobed rotors. An aperture is provided on the bottom of the compressor, at a rear end thereof, which permits air from the rear interior of the compressor to be in communication with high pressure supply air which is discharged from such compressor proximate the front of such compressor, on the bottom underside portion thereof. The above modification improves the efficiency of the compressor, particularly at high revolutions. | ||||||
| 187 | Compressor Installation With a Water-Injected Compressor Element | US12085028 | 2006-11-28 | US20090232688A1 | 2009-09-17 | Jan Paul Herman Heremans |
| Compressor installation with a water-injected compressor element to which an inlet line (4) and an outlet line (5) are connected, an air inlet filter (13) to which said inlet line (4) is connected, a water separator (6) into which said outlet line (5) feeds and a return line (7) between this water separator (6) and the compressor element (2), characterised in that said air inlet filter (13) takes the form of a wet filter to which a water supply is connected. | ||||||
| 188 | LIQUID INJECTION TYPE SCREW COMPRESSOR | US12111624 | 2008-04-29 | US20080253914A1 | 2008-10-16 | Yoshifusa KUBOTA; Yoshiyuki KOBAYASHI; Shigeru MUTA; Yasuaki ENDO |
| A liquid injection type screw compressor in which, in a compression stroke of an working space formed by male and female rotors, liquids such as oil or water is prevented from leaking from the high pressure working space to a gas inlet side, suction resistance of gas sucked from the gas inlet to a rotor casing is reduced to improve volumetric efficiency, and shape forming of the casing is simplified.The liquid injection screw compressor has the male and female rotor pair of screw rotors, the rotor casing (1a, 1b) having a bore for receiving the rotors, a gas suction opening and a gas outlet that are provided in both end sections of the casing and communicate with the bore, and a lip section (4) projected from a bore surface (2) positioned more on the upstream side than a suction seal line (5) of the casing in order to prevent a back flow of the liquid from the bore surface toward the gas inlet side. The lip section (4) is positioned in a region surrounded by the suction seal line (5) and a line separated by a distance of one screw pitch of the rotors from the suction closure line (5) to the suction opening side. | ||||||
| 189 | Screw Compressor | US11843691 | 2007-08-23 | US20080080997A1 | 2008-04-03 | KOHTARO CHIBA; Hirotaka Kameya; Hideharu Tanaka |
| A screw compressor rotatably accommodates, within a casing 20 including a suction port and a delivery port 3, a pair of female and male rotors 1, 2 under the meshed state and compresses gas in the state where a liquid is mixed by pouring the liquid to the gas confined within a working chamber 8 formed with both rotors 1, 2 and the casing 20. On the wall surface of the casing 20 opposing to the rotor delivery end, a recessed part 10 is provided. The working chamber 8 is communicated with the recessed part 10 immediately before isolating from the delivery port 3 and this communication is maintained until a volume of the working chamber 8 substantially becomes zero. Thereby, the screw compressor can be control increase in power consumption, vibration, and noise. | ||||||
| 190 | Compressor cooling system | US11353413 | 2006-02-14 | US20070186581A1 | 2007-08-16 | Vipul Mistry; James Collins; Robert Haseley |
| A compressor system that includes a compressor, a refrigeration system, a drive member and a cooling passage. The compressor is operable to produce a flow of compressed fluid. The refrigeration system includes an evaporator, and a flow of refrigerant passes through the evaporator and is operable to cool the flow of compressed fluid. The drive member is coupled to the compressor and is operable to drive the compressor. The cooling passage extends from a point downstream of the evaporator to a point upstream of the compressor. At least a portion of the cooling passage is in thermal exchange relationship with the drive member. | ||||||
| 191 | Very low temperature refrigeration system having a scroll compressor with liquid injection | US11081003 | 2005-03-15 | US07234310B2 | 2007-06-26 | Kevin P. Flynn; Oleg Podtcherniaev |
| Disclosed is a very low temperature or cryogenic refrigeration system with a scroll compressor and utilizing a mixed refrigerant that decreases refrigerant discharge temperature by refrigerant injection into the compressor. | ||||||
| 192 | Very low temperature refrigeration system having a scroll compressor with liquid injection | US11081003 | 2005-03-15 | US20070000261A1 | 2007-01-04 | Kevin Flynn; Oleg Podtcherniaev |
| Disclosed is a very low temperature or cryogenic refrigeration system with a scroll compressor and utilizing a mixed refrigerant that decreases refrigerant discharge temperature by refrigerant injection into the compressor. | ||||||
| 193 | Screw compressor | US10544770 | 2003-12-22 | US20060182647A1 | 2006-08-17 | Masaaki Kamikawa; Hiroyuki Yoneda; Souichi Shiraishi; Hiroyuki Yamakawa |
| The present invention provides a screw compressor in which an oil path is provided within the casing body such that the oil for sealing gaps in the compression chamber and lubricating the bearings is circulated to the vicinity of the low pressure side, allowing the compressor to have high adiabatic efficiency and high volumetric efficiency. The present invention also provides a screw compressor in which an oil path is provided in the screw bore outer circumferential portion of the casing body to prevent contact between the screw rotor and the screw bore portion of the casing body. The present invention also provides a screw compressor which includes a heat sink to increase the heat transfer area for exchanging heat between the oil and refrigerant gas or liquid refrigerant, thereby achieving increased resistance to returned liquid refrigerant. | ||||||
| 194 | Suction oil injection for rotary compressor | US10097877 | 2002-03-14 | US07011183B2 | 2006-03-14 | Jean-Louis Picouet |
| An apparatus and system for immediately lubricating a compressor within a compressor system using a suction oil line apparatus. The compressor system comprises a compressor, a power source for operating the compressor, a tank capable of storing oil therein, a conventional oil line, and a suction oil line apparatus. The suction oil line apparatus can comprise a suction oil line and a valve. When the power source is actuated, gas is introduced into a suction cavity within the compressor, drawn into a compression chamber within the compressor, and compressed. The compressed gas is discharged into a tank thereby elevating a tank pressure. The elevated tank pressure causes the oil within the tank to be transported through the suction oil line. Transportation of the oil through the suction oil line permits immediate lubrication of the compressor to occur following start-up of the compressor, immediate being from about one second to about one minute. Start-up can comprise initiation of the compressor, movement of components within the compressor, movement of intimate components within the compressor, or actuation of the power source. When the tank pressure reaches a pre-determined pressure, the valve in the suction oil line is closed. The closed valve results in the oil being prohibited from flowing through the suction oil line and permitted to flow through the conventional oil line. As such, the compressor remains continuously lubricated. Further, immediate lubrication can be accomplished without the need for a back-pressure valve or pump. | ||||||
| 195 | Water-injected screw compressor | US10481415 | 2003-12-30 | US20040151601A1 | 2004-08-05 | Ivo Daniels; Luc Van Miegheim |
| The invention relates to a water-injected screw compressor which comprises a compressor element (1) with an interior space (3), a suction conduit (7) which connects to an inlet part (6), situated at the top of this interior space (3), a pressure conduit (9) in which a vessel (10) is installed, and an injection conduit (22) between the vessel (10) and the interior space (3), which comprises a part (31) which is situated higher than the upper side of the inlet part (6). A connection conduit (36) is provided between the inlet part (6), on one hand, and a connection point, situated above the maximum water level (35) of the vessel (10), onto the part (32) of this injection conduit (22) extending downward towards its exit, on the other hand. | ||||||
| 196 | Water-injected screw-type compressor | US10467335 | 2003-12-10 | US20040071578A1 | 2004-04-15 | Jozef Maria Segers; Kris Roger Irene Vercauteren |
| The invention relates to a water-injected screw-type compressor element, comprising a housing (1) limiting a rotor chamber (2) in which two cooperating rotors (3, 4) are arranged which, by means of axle ends (5), are beared with both extremities in water-lubricated slide bearings (6) which are provided in the housing (1) and are provided with bearing bushes (7) which are fixedly provided on the axle ends (5) and are directly turnable in a bearing case (8) formed in said housing (1). | ||||||
| 197 | Suction oil injection for rotary compressor | US10097877 | 2002-03-14 | US20030173155A1 | 2003-09-18 | Jean-Louis Picouet |
| An apparatus and system for immediately lubricating a compressor within a compressor system using a suction oil line apparatus. The compressor system comprises a compressor, a power source for operating the compressor, a tank capable of storing oil therein, a conventional oil line, and a suction oil line apparatus. The suction oil line apparatus can comprise a suction oil line and a valve. When the power source is actuated, gas is introduced into a suction cavity within the compressor, drawn into a compression chamber within the compressor, and compressed. The compressed gas is discharged into a tank thereby elevating a tank pressure. The elevated tank pressure causes the oil within the tank to be transported through the suction oil line. Transportation of the oil through the suction oil line permits immediate lubrication of the compressor to occur following start-up of the compressor, immediate being from about one second to about one minute. Start-up can comprise initiation of the compressor, movement of components within the compressor, movement of intimate components within the compressor, or actuation of the power source. When the tank pressure reaches a pre-determined pressure, the valve in the suction oil line is closed. The closed valve results in the oil being prohibited from flowing through the suction oil line and permitted to flow through the conventional oil line. As such, the compressor remains continuously lubricated. Further, immediate lubrication can be accomplished without the need for a back-pressure valve or pump. | ||||||
| 198 | SCROLL COMPRESSOR WITH VAPOR INJECTION | US10050727 | 2002-01-16 | US20030133819A1 | 2003-07-17 | Michael M. Perevozchikov |
| A scroll compressor incorporates a vapor injection system where only one vapor injection port is utilized. The single vapor injection port injects refrigerant vapor into two of the initially formed enclosed spaces. The scrolls of the scroll compressor are designed with asymmetric wraps where the non-orbiting scroll wrap extends angularly further than the orbiting scroll wrap. | ||||||
| 199 | Screw compressor injected with water | US10169095 | 2002-07-11 | US20020192096A1 | 2002-12-19 | Jozef Maria Segers; Jan Paul Herman Heremans |
| The invention concerns an element of a screw compressor injected with water containing two rotors (2-3) in a rotor chamber (4). The water circuit (11) contains a part (10) in which practically prevails the outlet pressure. On the inlet side, the axle journals (13, 16) are radially supported on hydrodynamic slide bearings (18, 19). In the housing (1) opposite to the crosscut ends of the axle journals (13, 16) arc formed chambers (20, 21) which are connected to the above-mentioned part (10) or to the inside of the rotor chamber (4). On the outlet side, the axle journals (14, 17) are radially supported on hydrodynamic slide bearings (25, 26) on the one hand, and they are axially supported on hydrostatic slide bearings (27, 28) on the other hand which are connected to the above-mentioned part (10) of the water circuit (11), or on hydrodynamic slide bearings (37, 38). | ||||||
| 200 | Valve arrangement for a compressor | US09930392 | 2001-08-15 | US06467287B2 | 2002-10-22 | Lars Ivan Sjoholm; Lee J. Erickson; Dean William Osterman |
| A compressor and oil separator assembly for compressing a fluid includes a suction end, a discharge end, and first and second rotors rotatably mounted between the suction and discharge ends. A discharge line communicates with the discharge end, and an oil separator communicates with the discharge line. An oil sump communicates with the oil separator and an oil supply line communicates between the oil sump and the rotors. A bleed line selectively communicates between the discharge line and the oil supply line for equalizing a pressure differential between the suction end and the discharge end without causing substantial backward rotation of the rotors or displacement of oil to the rotors through the oil supply line. Preferably, the assembly further includes a valve that defines a portion of the discharge line and is also coupled to the bleed line. | ||||||
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