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    • 24. 发明授权
    • Numerical control system
    • 数控系统
    • US4503373A
    • 1985-03-05
    • US394915
    • 1982-06-18
    • Ryoichiro NozawaTsuyoshi NagamineHideaki KawamuraToshiaki Ohtsuki
    • Ryoichiro NozawaTsuyoshi NagamineHideaki KawamuraToshiaki Ohtsuki
    • G05B19/18G05B19/404G05B19/41G05B19/25
    • G05B19/41G05B2219/35459G05B2219/49243G05B2219/50297G05B2219/50336G05B2219/50356
    • Ordinarily, an interpolator (102) executes pulse calculations on the basis of a movement command from a command tape (101), to generate the respective distributed pulses XP, YP, ZP, BP and CP of cartesian coordinate axes and spherical coordinate axes, and these pulses drive corresponding servomotors (113)-(117) through servo circuits (108)-(112). In order to keep the relative position between the nose of a tool and a workpiece unchanged in a manual operation, a tool holder is positioned in the cartesian coordinate system, whereupon manual pulses in the B-axial or C-axial direction are generated by a manual pulse generator (103). Then, the distributed pulses BP and CP are generated through the interpolator (102) and rotate the servomotors (116) and (117). The distributed pulses are simultaneously impressed on a compensation circuit (104), which calculates the compensation pulses XHP, YHP and ZHP so as to drive the servomotors with pulses obtained by adding the compensation pulses to the distributed pulses.
    • PCT No.PCT / JP81 / 00314 Sec。 371日期1982年6月18日 102(e)日期1982年6月18日PCT提交1981年10月29日PCT公布。 出版物WO82 / 01600 日期为1982年5月13日。通常,内插器(102)根据来自命令带(101)的移动指令执行脉冲计算,以生成笛卡尔坐标轴的各自的分布脉冲XP,YP,ZP,BP和CP 和球面坐标轴,这些脉冲通过伺服电路(108) - (112)驱动相应的伺服电动机(113) - (117)。 为了在手动操作中保持工具的鼻子与工件的相对位置不变,工具架位于笛卡尔坐标系中,于是B轴或C轴方向上的手动脉冲由 手动脉冲发生器(103)。 然后,通过内插器(102)产生分布脉冲BP和CP,并使伺服电动机(116)和(117)旋转。 分布式脉冲同时施加在补偿电路(104)上,补偿电路(104)计算补偿脉冲XHP,YHP和ZHP,以便通过将补偿脉冲加到分布式脉冲而获得的脉冲来驱动伺服电动机。
    • 25. 发明授权
    • Self normalizing drill head
    • 自动归位钻头
    • US5848859A
    • 1998-12-15
    • US785821
    • 1997-01-08
    • Gregory L. ClarkDavid A. Yousko
    • Gregory L. ClarkDavid A. Yousko
    • B23B39/14B23B47/34B23B49/00B23Q9/00B23Q17/22G05B19/404B23B35/00B23B41/00
    • B23Q9/0014B23B39/14B23B47/34B23B49/00B23Q17/2233G05B19/404B23B2215/04G05B2219/37582G05B2219/39574G05B2219/40558G05B2219/45059G05B2219/45129G05B2219/50356Y10T408/03Y10T408/175Y10T408/50Y10T408/5623
    • An improved drilling device for drilling normal holes in a workpiece surface is carried and positioned by an automatic control arm. The improved drilling device includes a compliant drill head generally comprising a drill housing and a pressure foot. The pressure foot for contacting the workpiece surface is connected to the drill housing at a universally swiveling joint. The drill housing encloses a drill drive means that advances and rotates a drill tool about a drill axis. Both the pressure foot and the drill housing have axial chambers and holes for permitting the drill tool to advance to the workpiece surface. Linear gauges mounted to the drill housing probe the orientation of the pressure foot relative to the drill housing. The linear gauges provide data to the automatic control arm so that when the pressure foot contacts a portion of the workpiece surface that is not normal to the drill axis and the pressure foot swivels relative to the drill housing as the pressure foot orients normal to the workpiece surface, the control arm can realign the drill housing with the pressure foot so that the drill axis is normal to the work piece surface and so that the drill tool can be advanced and rotated toward and through the workpiece surface there by drilling a normal hole in the workpiece surface.
    • 用于在工件表面上钻出普通孔的改进的钻孔装置由自动控制臂承载和定位。 改进的钻井装置包括通常包括钻壳和压脚的顺应钻头。 用于接触工件表面的压脚在普通旋转接头处连接到钻孔壳体。 钻机壳体包围钻头驱动装置,其使钻具围绕钻头轴线前进和旋转。 压力脚和钻孔壳都具有用于允许钻具前进到工件表面的轴向腔室和孔。 安装到钻孔壳体上的线性量规探测压力脚相对于钻孔壳体的取向。 线性量规向自动控制臂提供数据,使得当压力脚接触工件表面的不垂直于钻头轴线的一部分时,并且压力脚相对于钻孔壳体旋转,因为压力脚垂直于工件 表面,控制臂可以用压脚将钻孔壳体重新对准,使得钻杆轴线垂直于工件表面,并且使得钻具可以通过在其中钻出正常的孔而朝向并穿过其中的工件表面前进和旋转 工件表面。
    • 26. 发明授权
    • Method for measuring the contour of a machined part
    • 用于测量加工零件轮廓的方法
    • US5419222A
    • 1995-05-30
    • US145537
    • 1993-11-04
    • Lothar F. Bieg
    • Lothar F. Bieg
    • G05B19/401B23B1/00
    • G05B19/401G05B2219/37025G05B2219/37193G05B2219/37194G05B2219/41089G05B2219/50059G05B2219/50315G05B2219/50356Y10T409/303808Y10T409/303864Y10T409/308624Y10T82/10
    • A method for measuring the contour of a machined part with a contour gage apparatus, having a probe assembly including a probe tip for providing a measure of linear displacement of the tip on the surface of the part. The contour gage apparatus may be moved into and out of position for measuring the part while the part is still carried on the machining apparatus. Relative positions between the part and the probe tip may be changed, and a scanning operation is performed on the machined part by sweeping the part with the probe tip, whereby data points representing linear positions of the probe tip at prescribed rotation intervals in the position changes between the part and the probe tip are recorded. The method further allows real-time adjustment of the apparatus machining the part, including real-time adjustment of the machining apparatus in response to wear of the tool that occurs during machining.
    • 一种用轮廓量具装置测量加工零件的轮廓的方法,该方法具有探针组件,该探头组件包括用于提供尖端在零件表面上的线性位移的测量头。 轮廓量规装置可以移动进出用于测量零件的位置,同时该零件仍然承载在加工装置上。 可以改变部件和探针尖端之间的相对位置,并且通过用探针尖部扫掠部件对加工部件进行扫描操作,由此在位置上以规定的旋转间隔表示探针尖端的线性位置的数据点改变 记录部件与探针尖端之间。 该方法还允许对加工零件的装置进行实时调整,包括响应于加工期间发生的刀具的磨损而实时地调整加工装置。
    • 27. 发明授权
    • Normal distance construction for machining edges of solid models
    • 固体模型加工边缘的正常距离施工
    • US5363309A
    • 1994-11-08
    • US24118
    • 1993-02-25
    • Wickham H. Tong Loh
    • Wickham H. Tong Loh
    • G05B19/4099G06F15/46
    • G05B19/4099G05B2219/35097G05B2219/50356Y10T408/175
    • A computer-based system and method is provided for positioning a cutter tool to an edge of a solid model in a computer aided manufacturing environment. A shortest distance and direction required to position the machine tool cutter to the edge of the solid model is determined. Edges are defined as three dimensional space curves. The machine tool cutter is defined as a convex envelope. Using the space curve definition, the cutter location, and the center axis of rotation for the cutter, computations are executed to determine a directional vector and distance such that moving the cutter along the vector for the prescribed distance will cause it to be in contact with the curve. Adjustments are available which cause the cutter to travel to offsets from the curve, including aligning the front of the cutter to the curve, the end of the cutter on the curve, or the back of the cutter past the curve.
    • 提供了一种基于计算机的系统和方法,用于在计算机辅助制造环境中将刀具定位到实体模型的边缘。 确定将机床刀具定位到实体模型边缘所需的最短距离和方向。 边缘被定义为三维空间曲线。 机床刀具被定义为凸包。 使用空间曲线定义,切割器位置和切割器的中心旋转轴线,执行计算以确定方向矢量和距离,使得沿着向量移动切割器达规定距离将使其与 曲线。 可以进行调整,使刀具从曲线偏移,包括将刀具的前部与曲线对齐,曲线上刀具的端部或刀具背面曲线。
    • 28. 发明授权
    • Digitizing control apparatus
    • 数字控制装置
    • US5182714A
    • 1993-01-26
    • US623664
    • 1991-01-08
    • Hitoshi Matsuura
    • Hitoshi Matsuura
    • B23Q15/00B23Q35/127G05B19/408G05B19/42
    • G05B19/4207G05B2219/37425G05B2219/50356
    • A digitizing control apparatus successively receives positional data and produces NC data while tracing the shape of a model. The digitizing control apparatus has a tracer head (3) having first and second non-contact-type distance detectors (30a, 30b) for independently measuring distances up to the surface of the model, the first and second non-contact-type distance detectors being positioned to travel parallel to a feed direction. A sampling circuit (16) samples measured values from the first and second distance detectors (30a, 30b) at predetermined times. A memory (13) stores a previously sampled measured value from the non-contact-type distance detector (30a) and a previously sampled measured value from the non-contact-type distance detector (30b). Data in a normal direction of the model surface (4) are determined based on at least three of the previously sampled measured values, a presently sampled measured value from the non-contact-type distance detector (30a), and a presently sampled measured value from the non-contact-type distance detector (30b). Therefore, the data in the normal direction can be obtained at high speed. The data in the normal direction thus determined are used in the determination of a tool offset, for example.
    • PCT No.PCT / JP90 / 00615 Sec。 371日期1991年1月8日 102(e)日期1991年1月8日PCT提交1990年5月15日PCT公布。 出版物WO90 / 14924 日期1990年12月13日。数字化控制装置在跟踪模型的形状的同时,连续地接收位置数据并产生NC数据。 数字化控制装置具有示踪器头(3),其具有第一和第二非接触型距离检测器(30a,30b),用于独立地测量直到模型表面的距离,第一和第二非接触型距离检测器 定位成平行于进给方向行进。 采样电路(16)在预定时间从第一和第二距离检测器(30a,30b)采样测量值。 存储器(13)存储来自非接触型距离检测器(30a)的先前采样的测量值和来自非接触型距离检测器(30b)的先前采样的测量值。 基于至少三个先前采样的测量值,来自非接触式距离检测器(30a)的当前采样的测量值和当前采样的测量值(4)来确定模型表面(4)的正常方向上的数据 来自非接触型距离检测器(30b)。 因此,可以高速获得正常方向的数据。 这样确定的法线方向的数据例如用于确定刀具偏置。