GEAR HOBBING CUTTER WITH NON-CONSTANT WHOLE DEPTHS
    2.
    发明申请
    GEAR HOBBING CUTTER WITH NON-CONSTANT WHOLE DEPTHS 有权
    齿轮切割机与不间断的全部深度

    公开(公告)号:US20170072486A1

    公开(公告)日:2017-03-16

    申请号:US15363094

    申请日:2016-11-29

    Abstract: A gear hobbing apparatus for producing a gear from a blank according to one example of the present disclosure can include a hob, a first series of hob teeth and a second series of hob teeth. The hob can have a cylindrical hob body. The first series of hob teeth can extend from the cylindrical hob body and have a first whole depth. The second series of hob teeth can alternately extend from the cylindrical hob body with the first series of hob teeth and have a second whole depth. The first and second whole depths are distinct and configured to create a gear from the blank that has adjacent teeth having distinct outer diameters.

    Abstract translation: 根据本公开的一个示例的用于从坯件生产齿轮的滚齿机装置可以包括滚刀,第一系列滚刀和第二系列滚刀齿。 滚刀可以有一个圆柱滚刀体。 第一系列滚刀可以从圆柱滚刀体延伸,并具有第一整体深度。 第二系列的滚刀齿可以从圆柱滚刀体与第一系列滚刀齿轮交替地延伸并具有第二整体深度。 第一和第二整个深度是不同的并且构造成从坯件产生具有不同外径的相邻齿的齿轮。

    Processing method and processing device for concave-convex gear
    3.
    发明授权
    Processing method and processing device for concave-convex gear 有权
    凹凸齿轮加工方法及加工装置

    公开(公告)号:US09339879B2

    公开(公告)日:2016-05-17

    申请号:US13578094

    申请日:2011-02-10

    CPC classification number: B23F15/00 F16H1/321 Y10T29/49467 Y10T29/54

    Abstract: For machining a concave-convex gear in which concave teeth of the concave-convex gear and convex teeth of a mating gear are formed in a circumferential direction, to allow torque transmission to or from the mating gear, in a trajectory extracting step a relative movement trajectory of each convex tooth of the mating gear with respect to the concave-convex gear at the time when torque is transmitted is first extracted as a machining target. Then, in a machining step, the concave teeth of the concave-convex gear are machined on a disc-shaped workpiece by moving at least one of the disc-shaped workpiece and a working tool such that a relative movement trajectory of the working tool with respect to the disc-shaped workpiece coincides with the relative movement trajectory of each convex tooth of the mating gear with respect to the concave-convex gear extracted in the trajectory extracting step.

    Abstract translation: 为了加工凹凸齿轮,其中凹凸齿轮的凹齿和配合齿轮的凸齿在圆周方向上形成,以允许扭矩传递到匹配齿轮或从配合齿轮传递,在轨迹提取步骤中,相对运动 首先将匹配齿轮相对于凹凸齿轮的每个凸齿的轨迹在扭矩传递时被提取为加工对象。 然后,在加工工序中,通过移动所述圆盘状工件和加工工具中的至少一个,将所述凹凸齿轮的凹齿加工成圆盘状的工件,使得所述加工工具的相对运动轨迹与 相对于圆盘状工件与配合齿轮的每个凸齿相对于在轨迹提取步骤中提取的凹凸齿轮的相对运动轨迹一致。

    PROCESSING METHOD FOR CONCAVE-CONVEX GEAR
    4.
    发明申请
    PROCESSING METHOD FOR CONCAVE-CONVEX GEAR 有权
    锥形齿轮加工方法

    公开(公告)号:US20120309272A1

    公开(公告)日:2012-12-06

    申请号:US13578729

    申请日:2011-02-10

    CPC classification number: B23F15/00 F16H1/321 Y10T409/10 Y10T409/103975

    Abstract: A relative movement trajectory of each convex tooth pin of a mating gear with respect to a concave-convex gear at the time when torque is transmitted between the mating gear and the concave-convex gear (nutation gear) may be expressed by a first linear axis, a second linear axis, a third linear axis, a fourth rotation axis, a fifth rotation axis and a sixth indexing axis. Then, a relative movement trajectory of each convex tooth pin of the mating gear, expressed by the first linear axis, the second linear axis, the third linear axis, the fifth rotation axis and the sixth indexing axis in the case where the fourth rotation axis is brought into coincidence with the sixth indexing axis, is calculated, and at least one of a disc-shaped workpiece and a working tool is moved on the basis of the calculated relative movement trajectory.

    Abstract translation: 在匹配齿轮和凹凸齿轮(章动齿轮)之间传递扭矩时,配合齿轮的每个凸齿销相对于凹凸齿轮的相对运动轨迹可以由第一直线轴 第二线性轴,第三线性轴,第四旋转轴,第五旋转轴和第六分度轴。 然后,在第四旋转轴的情况下,由第一直线轴,第二直线轴,第三直线轴,第五旋转轴和第六分度轴表示的配合齿轮的每个凸齿销的相对运动轨迹 与第六分度轴重合,计算出盘状工件和作业工具中的至少一个基于计算出的相对运动轨迹移动。

    Generation of periodic structures on rotationally symmetrical components
    6.
    发明授权
    Generation of periodic structures on rotationally symmetrical components 失效
    在旋转对称分量上产生周期性结构

    公开(公告)号:US06394718B1

    公开(公告)日:2002-05-28

    申请号:US09705864

    申请日:2000-11-06

    Applicant: Oliver Doerfel

    Inventor: Oliver Doerfel

    Abstract: The invention relates to the generation of periodic profiles on at least approximately rotationally symmetrical blanks, such as, for example, the generation of shaft-hub connection profiles such as circular wedge profiles, splined shaft profiles, etc., on shaft or hub blanks. To this end, the use of generating skiving is proposed, which permits the production of any desired periodic profiles on rotationally symmetrical blanks and is far superior to rival processes with regard to the productive machining time.

    Abstract translation: 本发明涉及在至少近似旋转对称的坯料上产生周期性轮廓,例如在轴或轮毂坯件上产生轴 - 毂连接轮廓,例如圆形楔形轮廓,花键轴轮廓等。 为此,提出了使用产生刮削,这允许在旋转对称坯料上生产任何期望的周期轮廓,并且在生产加工时间方面远远优于对手工艺。

    Method for cutting rack teeth
    7.
    发明授权
    Method for cutting rack teeth 失效
    齿条齿切割方法

    公开(公告)号:US4521141A

    公开(公告)日:1985-06-04

    申请号:US459122

    申请日:1983-01-19

    Applicant: Michio Abe

    Inventor: Michio Abe

    Abstract: This invention pertains to a rack and pinion type steering gear for an automobile and a method for cutting rack teeth in the gear. The gear comprises a housing, a pinion rotatably supported within the housing and operatively connected to a steering wheel and a rack bar supported within the housing for slidable movement in the axial direction and rotation and provided with rack teeth in engagement with the pinion. The rack teeth are formed on the rack and along a varying pitch line so that the axial movement amount of the rack varies as the pinion rotates.

    Abstract translation: 本发明涉及一种用于汽车的齿条齿轮式舵机和用于在齿轮中切割齿条齿的方法。 齿轮包括壳体,小齿轮可旋转地支撑在壳体内并且可操作地连接到方向盘和支撑在壳体内的齿条,用于在轴向方向上的滑动运动和旋转,并且具有与小齿轮啮合的齿条齿。 齿条齿形成在齿条上并且沿着变化的间距线,使得齿条的轴向移动量随小齿轮旋转而变化。

    Grinding apparatus
    10.
    发明授权

    公开(公告)号:US3121297A

    公开(公告)日:1964-02-18

    申请号:US8453961

    申请日:1961-01-24

    Abstract: 921,600. Grinding-machines. MICHIGAN TOOL CO. Dec. 29, 1961 [Jan. 24, 1961], No. 46773/61. Class 60. A method of grinding oppositely disposed surfaces comprises the rotation of a tool between the surfaces, which are engaged by it successively, the tool passing along each surface alternately, and decreasing the distance from the tool axis to the surfaces at each pass, the amount of decrease being the same for each surface. As applied to grinding the concave arcuate grooves 16, Fig. 4, of a portion 13 of a universal joint, the grinding wheel 22 is rotated about an axis at right angles to the grooves, the axis itself describing circles of increasing diameter about a central point 23, Fig. 5, which is coincident with the axis XX of the shaft of the workpiece 11 and with the common centre of curvature of the grooves 16. A movement of the wheel axis from the centre 23 to the left along the line 21 takes place each time the wheel axis reaches the relieved portion 18, Fig. 4, on a line 28 so that as the wheel periphery approaches the upper surface an increment of feed is applied, the wheel axis continuing its orbit at this radius through the lower face until, at line 23, a further increment of feed is applied, the cycle being repeated until the required depth of groove has been ground or the tool is to be changed for a finishing cut, when the wheel axis is centralized between the upper and lower faces of the work and withdrawn therefrom along the line 21. After the completion of one pair of opposed grooves the work, which is held in a chuck, is indexed to bring it into position for grinding the next pair. The grinding wheel housing 53 is mounted on a slide 44 carried by a bed 45 which, at its opposite end 61, is supported by rollers 62 on the machine base 39; an arm 64 extends from the side of the slide 44 and is pivotally attached at its forward end 65 to a member 89, Fig. 8, forming the crank-pin of an adjustable-throw " crank " 82; the axis 68 of the crank-pin is coaxial with that of the grinding wheel spindle 41, when the wheel is in its forward or working position, so that the wheel axis follows the same orbital path as the crank-pin and thus the depth of cut may be adjusted by altering the throw of the " crank 82. This is effected by the mechanism shown in Fig. 8 in which the Z- shaped end 93 of an axially adjustable bar 92 engages rollers 85, 86 carried by the " crank " 82, whereby the throw may be varied by sliding it radially in dovetailed guides 83 across the face of the flanged end 81 of a hollow shaft 71 driven through worm gearing 74 by an hydraulic motor 75. The grinding wheel 'spindle 14 is also driven by an hydraulic motor 49 through belts 51, Figs. 6 and 14, the motor being adjustably mounted on the slide 44. The driving and grinding head assembly is retractable with the slide by a piston 48 to a position in which the periphery of the wheel may be dressed by a tool carried by a swinging arm on a bracket 56 and having provision for vertical adjustment by a cylinder 58. The axial adjustment of the feed-controlling bar 92 is effected by the mechanism shown in Figs. 11 and 12. A nut 99 is rotatable by ratchet means 101 in a housing 97 to shift a screwed shaft 109 coaxial with the bar and attached thereto by a coupling member 111. The housing 97 is also slidable in the same sense, on a portion 98 of the machine bed, by means of a vertically slidable member 115 having an inclined projecting rib 118 which is contacted by rollers 116, 117 carried by the housing; movements of the member 115 are effected by an hydraulic cylinder 121. The shaft 109 is also adjustable by a hand wheel 122 to reduce the orbiting radius when changing grinding wheels. Normal feed movements are effected by the slide 115 controlled by the cylinder 121, each increment being determined by a metering cylinder 144, Fig. 18, having a floating piston 145 and an adjustable stop 146 for controlling the stroke. A switch-operating cam 138, Fig. 4, rotatable with the shaft 71, and therefore with the orbiting movement of the grinding wheel, actuates switches LS1 and LS2 to control the operation of a feed relay which, through a solenoid 139, shifts a valve 141, Fig. 18, to regulate the flow to and from the cylinder 144 as the grinding wheel axis crosses the line 28, Fig. 4. Switches LS3, LS4 similarly actuate a valve 142 which controls the movements of the slide 115 in its limiting positions; thus the valve 141 controls feed increments and the valve 142 the re-setting of the piston-rod 119, thereby retracting the bar 92. A mechanical stop is provided to limit the increase in orbital radius so that several orbits at maximum radius may be made for finishing the grooves. The dressing means 55 is co-ordinated with other operations by limit switches (not shown) for reversing the oscillatory movements of the dressing head 57 at the end of each stroke and for simultaneous compensating movement of the ratchet 101 by a cylinder 106, Fig. 12, to increase the orbital radius, the wheel axis during the dressing operation being on the line 21, Fig. 5; a counter may be provided whereby the dressing head 57 is retracted by the cylinder 58 after a predetermined number of oscillations. A safety switch may be provided for controlling the advance of the slide 44 towards the workpiece after the dressing assembly is fully retracted.

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