序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
221 Gear pump, and molding method thereof JP2002313413 2002-10-28 JP4072897B2 2008-04-09 克治 目黒
222 Screw compressor and a method of manufacturing the rotor manufacturing apparatus JP2003006501 2003-01-15 JP3906806B2 2007-04-18 裕敬 亀谷; 吐夢 加藤; 一宏 松本
223 Method of processing curve seal groove JP1035896 1996-01-24 JP3596135B2 2004-12-02 辰男 三浦; 正明 塩谷; 幸雄 山口; 隆広 山崎
224 Profile of screw pump JP2002557546 2002-01-12 JP2004517261A 2004-06-10 ラルフ シュテファインス
The invention relates to the production of screw pump rotors comprising a pitch and/or depth of teeth which can be modified along the axis of the rotor. By means of a simple profiled machine tool (7), a first part of the profiled flank contour is clearly defined along the rotor axis (8) by means of its specific tool guide mechanism, and is then produced in a definitive manner. The remaining second part of the profiled flank contour is then determined according to the rolling movement of the pair of rotors according to the first part of the profiled flank contour carried out by the tool, by means of an approximation which is as precise as possible. It is thus possible to obtain transversally different profiled contours according to the pitch and/or depth of teeth which can be modified along the axis of the rotor. A disk milling cutter is selected to be used as a profiled machine tool.
225 Gear pump and forming method thereof JP2002313413 2002-10-28 JP2004150282A 2004-05-27 MEGURO KATSUHARU
<P>PROBLEM TO BE SOLVED: To miniaturize a gear pump, and to raise the pressure of the pressurized fluid to be discharged from the gear pump. <P>SOLUTION: This gear pump 19 is provided with a pair of flat gears 28 and 29 housed in a pump chamber 24 of a case 25 to engage with each other, shaft holes 30 and 31 formed in the case 25, and a pair of support shafts 32 and 33 to be fitted in each of the shaft holes 30 and 31 to support each of the gears 28 and 29. Each of the inside surfaces 36 and 37 of the pump chamber 24 is made to directly face to each of the outside surfaces of the gears 28 and 29. The case 25 is provided with a first-a third cases 41-43 divided by a first cross section 39 passing in one inside surface 36 of both the inside surfaces 36 and 37 of the pump chamber 24 and extended flat along the inside surface 36 and a second cross section 40 passing in the other inside surface 37 and extended flat along the inside surface 37, and fixtures 18 and 44 for fixing these first-third cases 41-43 to each other. <P>COPYRIGHT: (C)2004,JPO
226 Processing method of the orbiting scroll JP16052692 1992-06-19 JP3283061B2 2002-05-20 堀江辰雄; 山中敏夫; 敦 島田; 阿部信雄
227 Processing method and apparatus of the scroll-shaped workpieces JP20330393 1993-08-17 JP3029228B2 2000-04-04 紀雄 佐伯; 稔智 国木; 利光 岩井; 寿幸 房安
228 Involute shape processing method JP19479885 1985-09-05 JP2634156B2 1997-07-23 MASUDA MASAMI
229 Scroll compressor JP1580091 1991-01-16 JPH04214979A 1992-08-05 SHIYAAROTSUKU ETEMATSUDO; DONARUDO YANNASUKORI; HAWAADO HENRII FUREIZAA JIYUNI; UIRIAMU ROBINSON REIN
PURPOSE: To provide a scroll compressor having a comparatively large exhaust hole in which the decrease in the outlet pressure remains lesser. CONSTITUTION: An exhaust hole 24' in long circular shape is formed by boring mechanically a circular hole using a drill in such an arrangement that a certain angle is held to the axis of each scroll. The drilled hole can be machined very easily from the front of a scroll plate 20, i.e., from the lap side.
230 Machining method for scroll component JP2594786 1986-02-10 JPS62188615A 1987-08-18 YAMADA TAKURO; WATANABE AKIRA
PURPOSE: To machine a scroll component at high speed and that in a highly accurate manner, by keeping moving paths of a tool constant in rectilinear form when the scroll component being used for a compressor of a refrigerator or the like is machined, and synchronizing the tool movement with rotation of the component mechanically. CONSTITUTION: When the outside of a wall 2 of a scroll component 1 is machined, an outer wall surface 14 is of an involute curve, and a tool 3 in use is, for example, an end mill. And, a turning center of this tool 3 is designed to be shiftable on a tangent (d) line offsetting a radius portion of a base circle of the involute curve. In addition, the scroll component 1 is set up to be rotatable with a center (a) point of the base circle as the center. These movements are carried out by a numerically controlled machine tool. Rectilinear motion in an arrow direction of the tool 3 and rotational motion of the component 1 come to simple proportion, and it is offset as far as the radius portion of the tool 3 in the arrow direction from the involute curve of the outer wall surface 14, whereby if movement of the tool 3 and rotation of the component 1 are carried out, the outer wall surface 14 is machinable. In this connection, an inner wall surface 16 is also machinable. COPYRIGHT: (C)1987,JPO&Japio
231 Contact surface of tooth form in trochoid type motor or pump JP27165085 1985-12-04 JPS62131990A 1987-06-15 MINEGISHI SEIJI; SHIBUYA KENICHI; MATSUI EIICHI; HATTA NORIO
PURPOSE:To lower the friction coefficient of a contact surface and reduce power loss, by forming mesh-like recesses and projections on the contact surface of the tooth form of a trochoid type hydraulic motor or pump, and covering this contact surface with a chemically processed coating of which thickness is lower than the height of the recesses and the projections. CONSTITUTION:A peak A and a valley B (recesses and projections) are formed, as shown in D and E, in the axial direction and the circumferential direction of an outer tooth by grinding. The tip of the peak A is rounded by barrel finishing and shot peening, and it is covered with a phosphate coating thereafter. In this case, the thickness of the coating C is made smaller than the height of the peak A and the valley B. Here, the height of the peak A and the valley B is made preferably 1-10mu, and the thickness of the coating C is made preferably up to about 3mu a little lower than the height of the peak A and the valley B. Thus, in an abrasion condition after sliding and engaging, the tooth form remains, as shown in F and G, mesh-like in the axial direction and the circumferential direction of the outer tooth, lubricating oil working also as operational oil is sufficiently retained in every position of the contact surface, so that the friction coefficient of the contact surface can be reduced.
232 Method for machining involute form JP19479885 1985-09-05 JPS6257856A 1987-03-13 MASUDA MASAMI
PURPOSE: To simplify a controlling method while improve machining accuracy by making the feeding direction of a moving table agree with the tangential direction of the base circle of an involute, while making a feed speed proportionate to the rotating speed of a rotary table. CONSTITUTION: An X-axis table 10 is straightly advanced in such a way that the center Q of an end mill 7 is moved in the inner direction on a tangent line 21, while rotating a rotary table 12 with its rotation angle being interlocked with the feed of the table 10 in a certain proportional relation, to machine the outer wall of an involute curve 5a. After machining is over, the table 12 is reversed, a male scroll 1 is also reversed and the phase of the rotation angle is shifted by a certain amount, and the end mill 7 is positioned in the start position of an involute curve 5b. And, synchronized with the reverse rotation of the table 12, the table 10 is straightly advanced in the returning direction so as to move the center Q of the end mill 7 in the outer direction on the tangential line 21, to machine the inner wall of the involute curve 5b. Accordingly, any correction of error by means of the angle of deviation θ" is not necessary also for the inner wall of the curve 5b. COPYRIGHT: (C)1987,JPO&Japio
233 Working of scroll body for scroll type hydraulic machine JP8770884 1984-05-02 JPS60233389A 1985-11-20 SUGIMOTO TAMIO; TERAUCHI KUNITSUGU
PURPOSE:To permit to work the internal wall surface of the scroll into a predetermined dimension and improve the sealing property upon meshing as well as the performance of the scroll by a method wherein the outer peripheral end of the scroll body is worked under a condition that the outer peripheral end is extended to an extent longer than the same end upon finishing and the extended section is cut off after finishing the working of internal wall surface. CONSTITUTION:The outer peripheral end 80 of the scroll body 282, 302 is extended than the same end 41 upon finishing the working thereof. Under this condition, the internal wall surface 50 is cut sequentially from the internal wall surface 50 of the outer peripheral end 41 toward the center of the scroll by a cutting tool such as a mill cutter or the like, thereafter, the outer wall surface 60 is cut. Then, unnecessary section of the extended section 80 is cut off by an end mill cutter or the like to obtain a predetermined finishing dimension. Thus, the internal wall surface 50 is worked under a condition that the rigidity of the outer peripheral end 41 upon finishing is reinforced, therefore, the tilting of the upper part of outer peripheral end 41 may be reduced and the upper part of internal wall surface 50 of the same peripheral end 41 may be worked into the predetermined finishing dimension. Accordingly, the sealing property upon meshing of the scroll members 28, 30 may be improved and the performance of the hydraulic machine may be improved.
234 Working method of scroll member and tool thereof JP10202882 1982-06-16 JPS58223552A 1983-12-26 NIWA TOSHIKAZU; TAKAHASHI MINEO; AIBA KAZUMI
PURPOSE:To permit the lap-side wall surface of a scroll member to be shaping- worked in a short time by forming cutting blade on the edge of the swirl groove of a form-cutting tool. CONSTITUTION:A form-cutting tool 100 has a swirl groove 105 in the female relation to the swirl lap on a scroll member 102, and the cutting blades 106 and 107 of the form-cutting tool 100 are formed at least on one edge of the swirl groove 105, and then, the form-cutting tool 100 or the scroll member 102 as an aritcle to be worked is driven only in the axial direction, and the lap-side wall surface is shaping-worked. Therefore, the side wall surface of the scroll member can be finish-worked at a stroke in an exceedingly short time.
235 Method and apparatus for working scroll member JP7613881 1981-05-20 JPS57190726A 1982-11-24 FUKUSHIMA EIJI; FUKUHARA MASAICHI; HIRAGA MASAHARU
PURPOSE: To obtain a scroll member made by combining a volute body and a side plate in a body inexpensively and simply by rolling a preparatory volute body of a scrool member for a scroll type fluid machine between two specified rotary volute bodies for working. CONSTITUTION: A working apparatus 30 consists of the first volute body for working 312, a side plate member 31 having through-holes 313, the second volute body for working 32 of the same volute direction provided with driving pins 321 and a rotary driving plate 33 having fitting holes 331. A preparatory scroll member A formed as accurately as cost permits is fixed on a working stand 34 and the volute body is inserted into a clearance between inner and outer walls of volute bodies 312, 32. When a plate 33 is rotated in the direction B, the volute body 32 is rotated through-pins 321 fitted to the holes 331. When the member 31 is rotated in the direction C, which is reverse to B, the volute body 312 is rotated. At this time, movement of pins 321 is restricted by holes 313 inner sides of which are made to concentric arcs around the center of the volute body 321. The clearance of above-mentioned walls is narrowed and the volute body of the member A is finished at uniform accuracy. COPYRIGHT: (C)1982,JPO&Japio
236 Working method of scroll member in scroll compressor JP6298281 1981-04-24 JPS57179392A 1982-11-04 MOROHASHI KAZUICHI; NAKAMURA TOSHIYUKI
PURPOSE:To smooth the lubrication thereof even though it is operated under the contact with a scroll tooth by a method wherein the roughness of the surface of a scroll groove section is improved by effecting the burnishing work of the scroll groove section after the cutting work of the scroll member. CONSTITUTION:A round table 8, secured to a milling machine bed 9, is formed so as to be rotated under synchronizing with the parallel advancement in X direction of the milling machine bed 9 perfectly while a clutch 11 is provided to make them operable independently respectively for the convenience of the working. Then, a cutting edge 7 is employed as shown by the diagram and cut a circular involute groove as a fixed scroll 1 to be worked is advanced in parallel under being rotated, thereafter, the cutting edge 7 is exchanged to a burnishing tool, the cylindrical end face of which has a plane 7a vertical with respect to the axial line thereof, an angle 7b of which is steep, the face 7a of which shows a cross shape having a groove 7c, and the cylindrical side face section of which has a plurality of U-shaped grooves 7d in parallel with the axial line thereof. According to this method, the surface roughness of the scroll groove section is improved and the lubrication thereof may be smoothened.
237 Scroll machining device JP8573780 1980-06-24 JPS5715610A 1982-01-27 NAKAMURA TOSHIYUKI; MAEYAMA NORITAKA; MORISHITA ETSUO; SUGIHARA MASAHIRO
PURPOSE:To attain a smoothly finished involute groove on the work, by providing a table translated in one direction and provided on it a machining table which rotates in synchronization with the translation of this table, and making a machine work by means of a rotary cutter rotating at a fixed position. CONSTITUTION:Rotation of driving motor 105 is transmitted to a driving mechanism 101 of the table through a gear 99 and a reducer 100, and translates the milling machine table 95 to x-direction. Synchronized with this motion, the machining table 94 is rotated through a gear 99, clutch 97, connecting rod 96 and a worm-gear 102. The work 200 fixed on the machining table 94 translates and rotates in a synchronized motion of a designated ratio, and have an involute groove machined by the end mill 93 which is rotating at a fixed position with a displacement from x- direction by a perpendicular distance of a. Thus, a smoothly finished involute groove can be attained using existing conventional machine tools.
238 원통형 및 프로파일링된 섹션들을 갖는 샤프트 형태의 워크피스를 완전 연삭하기 위한 방법 KR1020177032122 2017-03-03 KR1020180122269A 2018-11-12
하나의동일한연삭머신상에적어도하나의원통형및 프로파일링된부분을각각포함하는워크피스를연삭하는방법이기재되어있다. 워크피스는먼저연삭머신의제 1 클램핑에서제 1 연삭작업으로연삭되고, 제 1 클램핑이해제되고나면상기제 1 연삭작업이후에제 2 연삭작업이뒤따르며, 제 2 연삭작업의시작전에, 제 2 클램핑이발생된다.
239 주물 구멍 가공품의 형성 방법, 주물의 케이싱, 및 스크루 압축기의 케이싱 KR1020167022817 2014-11-27 KR101862963B1 2018-05-30 미야타케도시유키; 요네츠도모야
주물관통구멍(12)에연통되도록드릴(17)로구멍가공을실시하는주물구멍가공품의형성방법은, 주조공정과, 구멍가공공정을구비한다. 주조공정에서는, 드릴(17)로구멍가공이실시되는위치의폭이, 드릴(17)의직경(D)에, 주물(10)의제조오차범위인제1 길이(H1)를더한제2 길이(H2)인, 평탄한내벽면(15a)을포함하는주물관통구멍(12)을갖는주물(10)을주조한다. 구멍가공공정에서는, 드릴(17)에의해평탄한내벽면(15a)을통과하여주물관통구멍(12)의내부와주물(10)의외부를연통하는관통구멍(13)의구멍가공을실시한다.
240 주물 구멍 가공품의 형성 방법, 주물의 케이싱, 및 스크루 압축기의 케이싱 KR1020167022817 2014-11-27 KR1020160113638A 2016-09-30 미야타케도시유키; 요네츠도모야
주물관통구멍(12)에연통되도록드릴(17)로구멍가공을실시하는주물구멍가공품의형성방법은, 주조공정과, 구멍가공공정을구비한다. 주조공정에서는, 드릴(17)로구멍가공이실시되는위치의폭이, 드릴(17)의직경(D)에, 주물(10)의제조오차범위인제1 길이(H1)를더한제2 길이(H2)인, 평탄한내벽면(15a)을포함하는주물관통구멍(12)을갖는주물(10)을주조한다. 구멍가공공정에서는, 드릴(17)에의해평탄한내벽면(15a)을통과하여주물관통구멍(12)의내부와주물(10)의외부를연통하는관통구멍(13)의구멍가공을실시한다.
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