| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 41 | Method for machining a scroll member | US428295 | 1995-04-25 | US5630684A | 1997-05-20 | Yukio Yamaguchi; Junichi Iio; Norio Suzuki; Kouji Mikami; Masaaki Enya; Yukihisa Tsuchimoto; Yasuhiro Miura; Tomomi Ohno |
| A method for machining a groove in a sealing member and the edges of the groove. A tool 24 is formed with a top portion 24 having cutter sections 23A, each defining a cutting edge 23 for machining a groove in a scroll wall of a scroll member, and a tapered part 25 having cutter sections 26A, each defining a cutting edge 26 for bevelling the edges of the groove and the edges of the scroll wall. The groove 9 and edges 11 are simultaneously machined. | ||||||
| 42 | Closed type motor-driven compressor, a scroll compressor and a scroll lap machining end mill | US942022 | 1992-09-08 | US5304045A | 1994-04-19 | Nobutoshi Hoshino; Kazuo Ikeda; Kooichi Inaba; Shigeya Kawaminami; Atushi Shimada; Tatuya Wakana; Nobuo Abe; Kunio Fukami; Hidenari Takada; Masanori Wakaizumi; Mitsuaki Haneda; Keiji Taguchi; Toshio Yamanaka; Tatuo Horie; Masami Masuda |
| A closed type motor-driven compressor includes a motor accommodated in a closed container and a compression mechanism connected through a crank shaft to the motor. A shielding member having a cylindrical portion substantially concentric with the axis of the compression mechanism is disposed between the motor and the compression mechanism. This shielding member defines a shielding air space between the motor and the compression mechanism for preventing a permeation of a lubricating oil. An inlet of a discharge pipe of the closed type motor-driven compressor is positioned inwardly of this shielding air space. | ||||||
| 43 | Method of fabricating scroll members | US239414 | 1981-03-02 | US4512066A | 1985-04-23 | John E. McCullough |
| Method for forming scroll members comprising an end plate having an involute wrap rigidly affixed thereto. The end plate and involute wrap are precision formed, e.g., by casting, either as an integral element or as two separate elements and then the scroll member is broached to the desired dimensional accuracy and finish. Push broaching is accomplished with an involute broaching tool which has a single terminating cutting edge on one or both sides of an involute blade cutter. | ||||||
| 44 | Cast-in offset fixed scroll intake opening | US14754885 | 2015-06-30 | US09890784B2 | 2018-02-13 | Ronald J. Duppert |
| A fixed scroll compressor body includes a scroll compressor body casting. The casting has a central body portion having a plate-like base with a spiral scroll rib projecting from the base at a right angle thereto. The spiral scroll rib includes a volume between the spiraled ribs for the compressing of refrigerant. The spiral scroll rib spirals from a central region of the plate-like base to an outer wall of the central body portion. The casting further includes a first inward-protruding portion that protrudes from the outer wall into the volume. A distance that the first inward-protruding portion protrudes into the volume is greater than a thickness of the first inward-protruding portion such that removal of the first inward-protruding portion results in a first intake opening in the outer wall. The first intake opening provides a path for a flow of refrigerant into the volume. | ||||||
| 45 | ROTATING BODY, ROTATING BODY MATERIAL, AND METHOD OF MANUFACTURING ROTATING BODY | US15106090 | 2014-01-07 | US20170002809A1 | 2017-01-05 | Naotaka HONDA |
| A novel rotating body, its material, and manufacturing method thereof, shortening a distance for cutting a bore surface in its axial direction, reducing processing costs, enabling lower-cost manufacture of inner rotor. A metallic rotating body 11 has a bore surface 12 for press-fitting a shaft thereinto, including a cutting-processed portion 13 at first end and an unprocessed portion 14 at second end. The processed portion 13 has an inner diameter formed smaller than the unprocessed portion 14. A chamfer 15 at first end of the bore surface 12 is cut, while a chamfer 6 at the second end not. A bore surface 2 of material 1 processed into the rotating body 11 includes a small-diameter portion 3 at first end and a large-diameter portion 4 at second end. A step 5 is formed between the small- and large-diameter portions 3, 4, with the chamfer 6 formed at second end. | ||||||
| 46 | Scroll member, method of manufacturing same, compression mechanism and scroll compressor | US12531913 | 2008-03-27 | US09133844B2 | 2015-09-15 | Yasuhiro Murakami; Mikio Kajiwara; Mitsuhiko Kishikawa; Hiroyuki Yamaji; Mie Arai |
| A method of manufacturing a scroll member for a compression mechanism installed in a scroll compressor includes a casting step and a cutting step. An iron casting is formed in the casting step, which includes a spiraling part. The iron casting obtained in the casting step is cut during the cutting step in order to obtain a final shape of the scroll member. The iron casting may include a fixed part having a central portion with a first axial thickness and an external periphery portion with a second axial thickness larger than the first axial thickness before the cutting step. A dimension of a specified portion of the spiraling part may be larger before the cutting step is performed than after the cutting step is performed, with the specified portion preferably disposed toward an external periphery of the spiraling part. | ||||||
| 47 | Scroll compressor and method for machining discharge port of the same | US13515701 | 2011-05-24 | US09121406B2 | 2015-09-01 | Takayuki Watanabe; Takeshi Hirano; Norio Hioki; Shinichi Takahashi |
| A scroll compressor in which a paired fixed scroll and rotating scroll each having a spiral wrap provided upright on an end plate are engaged to form a compression chamber and in which a discharge port that discharges fluid compressed in the compression chamber is provided at the central portion of the fixed scroll, wherein the discharge port has a deformed elongated hole shape having circular holes at both ends, and the circular holes at both ends are connected by two surfaces the width between which is smaller than the hole diameters of the circular holes. | ||||||
| 48 | Microsystems for converting pressures and compression | US13321977 | 2010-05-25 | US08764422B2 | 2014-07-01 | Thierry Hilt |
| The invention relates to a microsystem for converting a difference in pressures in a fluid into mechanical movement, this microsystem comprising: —an inlet nozzle (6) for compressed fluid and an outlet nozzle (8) for expanded fluid, —at least two arms (12, 14), at least one of which is hinged and between which flows the fluid in order to pass from the inlet nozzle to the outlet nozzle by moving these arms with respect to one another, the arms (12, 14) being designed and hinged such that, while they move, they define at least one pocket of fluid which is moved away from the inlet nozzle in order then to return to the outlet nozzle while at the same time increasing in volume, each of the arms (12, 14) being mechanically connected to a single plane (20). | ||||||
| 49 | GEROTOR DEVICE ROLLER POCKET GEOMETRY | US14047311 | 2013-10-07 | US20140037487A1 | 2014-02-06 | Hollis N. White, JR. |
| A gerotor device includes a rotor having outwardly extending teeth and a stator having inwardly extending teeth. The inwardly extending teeth are formed by rollers each of which is received in a respective roller pocket in the stator. Each roller pocket has a maximum pocket width measured perpendicular to a pocket centerline. Each roller pocket defines a roller bearing surface having a first side that follows a first radius and a second side on an opposite side of the centerline that follows a second radius. Each radius is greater than ½ the maximum pocket width. Each roller pocket has an edge pocket width between a first pocket edge where the pocket transitions to a generally cylindrical section in the stator and a second pocket edge on an opposite side of the centerline. The edge pocket width is less than the maximum pocket width. | ||||||
| 50 | POLYETHERIMIDE PUMP | US13842517 | 2013-03-15 | US20140010697A1 | 2014-01-09 | Peter Haug |
| A positive displacement pump and methods of making a positive displacement pump having a component, the component having a density ranging from more than 0 to 3 g/cm3, a glass transition temperature (Tg) greater than or equal to 150° C., and a yield strength retention greater than 90% after soaking in engine oil for 7 days at 150° C. | ||||||
| 51 | Single screw compressor and a method for processing a screw rotor | US12672248 | 2008-08-07 | US08348649B2 | 2013-01-08 | Harunori Miyamura; Tadashi Okada; Takayuki Takahashi; Kaname Ohtsuka; Toshihiro Susa; Hiromichi Ueno; Takanori Murono |
| In a screw rotor (40), a first suction-side area (45) is formed in a first side wall surface (42) of a spiral groove (41). In the first side wall surface (42), a portion extending from a start point to a point until immediately before a compression chamber (23) is in a completely-closed state defines the first suction-side area (45). The first suction-side area (45) is thinner than a portion of the first side wall surface (42) other than the first suction-side area (45), and does not contact a gate (51) of a gate rotor (50). | ||||||
| 52 | MICROSYSTEMS FOR CONVERTING PRESSURES AND COMPRESSION | US13321977 | 2010-05-25 | US20120068474A1 | 2012-03-22 | Thierry Hilt |
| The invention relates to a microsystem for converting a difference in pressures in a fluid into mechanical movement, this microsystem comprising:—an inlet nozzle (6) for compressed fluid and an outlet nozzle (8) for expanded fluid,—at least two arms (12, 14), at least one of which is hinged and between which flows the fluid in order to pass from the inlet nozzle to the outlet nozzle by moving these arms with respect to one another, the arms (12, 14) being designed and hinged such that, while they move, they define at least one pocket of fluid which is moved away from the inlet nozzle in order then to return to the outlet nozzle while at the same time increasing in volume, each of the arms (12, 14) being mechanically connected to a single plane (20). | ||||||
| 53 | SEAL ASSEMBLY AND METHOD | US13124355 | 2009-10-19 | US20110204572A1 | 2011-08-25 | Timothy Shires |
| A corner seal assembly for a rotor of a rotary engine, the assembly comprising a pair of corner seal elements, each seal element of the pair being arranged to provide a seal between the rotor and a respective one of a pair of opposed end faces of the rotary engine, the seals being arranged to be resiliently coupled to one another whereby the seals exert substantially the same force on each one of the pair of opposed end faces. | ||||||
| 54 | Method of producing a stator segment for a segmented stator of an eccentric screw pump | US12435838 | 2009-05-05 | US20100284842A1 | 2010-11-11 | Sebastian Jager |
| A method for producing a stator segment for a segmented stator of an eccentric screw pump or an eccentric screw motor, as well as a stator segment and a stator. A stator segment in an initial state is processed or machined with a linear cutter that removes material to provide the stator segment with a helical inner segment surface. | ||||||
| 55 | SCROLL MEMBER, METHOD OF MANUFACTURING SAME, COMPRESSION MECHANISM AND SCROLL COMPRESSOR | US12531913 | 2008-03-27 | US20100111738A1 | 2010-05-06 | Yasuhiro Murakami; Mikio Kajiwara; Mitsuhiko Kishikawa; Hiroyuki Yamaji; Mie Arai |
| A method of manufacturing a scroll member for a compression mechanism installed in a scroll compressor includes a casting step and a cutting step. An iron casting is formed in the casting step, which includes a spiraling part. The iron casting obtained in the casting step is cut during the cutting step in order to obtain a final shape of the scroll member. The iron casting may include a fixed part having a central portion with a first axial thickness and an external periphery portion with a second axial thickness larger than the first axial thickness before the cutting step. A dimension of a specified portion of the spiraling part may be larger before the cutting step is performed than after the cutting step is performed, with the specified portion preferably disposed toward an external periphery of the spiraling part. | ||||||
| 56 | Liquid ring pump | US10556748 | 2004-05-04 | US07648344B2 | 2010-01-19 | Bernd Wenckebach; Silke Heetsch; Alfons Jünemann |
| Disclosed is a liquid ring pump with one or several stages, each of which comprises a working chamber, an impeller that is eccentrically mounted therein, flat control disks that axially delimit the working chamber on both sides, and ducts or chambers that are located adjacent to the control disks and deliver and discharge the transport gas to and from the working chamber. The inventive liquid ring pump is characterized in that the control disks are embodied in the same manner with identical suction ports and pressure ports while ports that are not needed are covered on the side facing away from the impeller. | ||||||
| 57 | Scroll fluid machine | US12003481 | 2007-12-26 | US20080159894A1 | 2008-07-03 | Yoshiyuki Kanemoto |
| A gap between opposing wrap portions is narrowed to increase compression efficiency, and an amount of machining time is reduced to thereby increase productivity.A plurality of proximate portions 8 are formed, at spacings in a spiral direction, on an outer peripheral surface 3B of a wrap portion 3 of a fixed scroll 1. Flat surfaces 8A are used to connect adjacent proximate portions 8. Similarly, a plurality of proximate portions 14 are formed, at spacings in the spiral direction, on an outer peripheral surface 13B of a wrap portion 13 of an orbiting scroll 11. Flat surfaces 14A are used to connect adjacent proximate portions 14. In this way, the outer peripheral surfaces 3B and 13B of the wrap portions 3 and 13 can be formed in polyangular shapes, so as to reduce a gap between the wrap portions 3 and 13 and simplify the shapes. As a result, an amount of machining time can be reduced. | ||||||
| 58 | ORBITAL ENGINE | US11844328 | 2007-08-23 | US20080050258A1 | 2008-02-28 | Michael Wright |
| The present disclosure includes an engine having a torodial piston chamber, at least one piston positioned in the torodial piston chamber, and at least one engine valve positioned to interact with the torodial piston chamber. | ||||||
| 59 | Screw compressor and method of manufacturing rotors thereof | US11067701 | 2005-03-01 | US07040845B2 | 2006-05-09 | Kazuhiro Matsumoto; Tomu Kato; Hirotaka Kameya |
| A screw compressor comprises a casing, and a male and a female rotor formed with axially twisted screw grooves and accommodated in the casing, the both rotors being rotated by timing gears fixed to the respective rotors while a desired minute gap is kept therebetween, and a method of manufacturing rotors therefor. In the screw compressor, the male and female rotors formed with axially twisted screw grooves in the casing comprise concave stripes having a minute depth and provided on the respective screw grooves to extend along directions of twist thereof, and leakage of a compressed air is less to give a high compression efficiency. | ||||||
| 60 | Screw compressor and method of manufacturing rotors thereof | US11067701 | 2005-03-01 | US20050147519A1 | 2005-07-07 | Kazuhiro Matsumoto; Tomu Kato; Hirotaka Kameya |
| A screw compressor comprises a casing, and a male and a female rotor formed with axially twisted screw grooves and accommodated in the casing, the both rotors being rotated by timing gears fixed to the respective rotors while a desired minute gap is kept therebetween, and a method of manufacturing rotors therefor. In the screw compressor, the male and female rotors formed with axially twisted screw grooves in the casing comprise concave stripes having a minute depth and provided on the respective screw grooves to extend along directions of twist thereof, and leakage of a compressed air is less to give a high compression efficiency. | ||||||
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