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    • 41. 发明专利
    • Machining apparatus and machining method
    • 加工设备和加工方法
    • JP2005254370A
    • 2005-09-22
    • JP2004067586
    • 2004-03-10
    • Fanuc Ltdファナック株式会社
    • KAWAI TOMOHIKOEBIHARA KENZO
    • B23Q15/00B23Q17/00B23Q35/127B23Q35/40G05B19/408
    • B23Q35/127G05B2219/34334G05B2219/4711G05B2219/49006G05B2219/49388
    • PROBLEM TO BE SOLVED: To provide a machining apparatus and a machining method, for machining according to a machining model simply and accurately while varying the contraction scale in the height direction. SOLUTION: A non-contact displacement gauge 3 is fitted to one surface of a tool table 1. A tool 2 is fitted to the other surface thereof. A machining model 5 is disposed opposite to the displacement gauge 3. A work 6 is disposed opposite to the tool 2. The displacement gauge 3 measures the distance to the machining model measured by a probe 3a, and sends an output signal. The output signal is amplified by an amplifier to drive an actuator for projecting the tool 2. The degree of amplitude of the amplifier is made adjustable. Thus, the contraction scale in the direction of height is varied to the machining model 5 to machine the work. COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:提供一种加工装置和加工方法,用于在改变高度方向上的收缩比例的情况下简单准确地根据加工模型进行加工。 解决方案:非接触位移计3安装在工具台1的一个表面上。工具2安装在其另一个表面上。 加工模型5与位移计3相对设置。工件6与工具2相对设置。位移计3测量与探针3a测量的加工模型的距离,并发送输出信号。 输出信号由放大器放大,以驱动用于投影工具2的致动器。放大器的幅度可调。 因此,高度方向的收缩尺度根据加工模型5而变化,以加工工件。 版权所有(C)2005,JPO&NCIPI
    • 42. 发明专利
    • Monitoring device
    • 监控设备
    • JP2005221261A
    • 2005-08-18
    • JP2004026966
    • 2004-02-03
    • Fanuc Ltdファナック株式会社
    • KAWAI TOMOHIKOTANIGUCHI MITSUYUKIODA TAKAYUKI
    • G01D5/347H02K11/00G01D5/34
    • G01D5/3473
    • PROBLEM TO BE SOLVED: To monitor displacements between a movable scale and a fixed slit of an optical encoder and excess load related to the displacements without having to use a separately placed displacement sensor. SOLUTION: Light from a light source part is irradiated to the movable scale 1 mounted to a rotating shaft etc. of a fluid bearing motor to generate signal light of an A phase, a B phase, etc. The signal light of each channel is passed through each opening of the fixed slit and made incident onto a light receiving part to generate an electric signal of each phase. The peak of output Vin of any phase is held by a peak hold element and compared with a peak voltage Vref at normal times to acquire an output voltage Vo as monitor output. On the basis of a code and an absolute value of Vo, it is possible to monitor displacements of the movable scale and a rotor in directions along the rotating shaft or the size of load (an external force) exerted on them and detect anomalous displacements, excess load, etc. COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:监测光学编码器的可移动刻度尺和固定狭缝之间的位移以及与位移相关的过载,而不必使用单独放置的位移传感器。 解决方案:将来自光源部分的光照射到安装在流体轴承电动机的旋转轴等上的可动标尺1,以产生A相,B相等的信号光。每个信号光 通道穿过固定狭缝的每个开口并入射到光接收部分上以产生每相的电信号。 任何相的输出Vin的峰值由峰值保持元件保持,并与正常时间的峰值电压Vref进行比较,以获得输出电压Vo作为监视器输出。 基于代码和Vo的绝对值,可以监视沿着旋转轴的方向上的可动标尺和转子的位移或施加在其上的负载大小(外力)并检测异常位移, 超负荷等。版权所有(C)2005,JPO&NCIPI
    • 43. 发明专利
    • Air-bearing motor
    • 空气轴承电机
    • JP2000078795A
    • 2000-03-14
    • JP25914198
    • 1998-08-31
    • Fanuc Ltdファナック株式会社
    • SAWADA KIYOSHIKAWAI TOMOHIKO
    • F16C32/06H02K5/16H02K7/08
    • PROBLEM TO BE SOLVED: To reduce an electromagnetic torque ripple, to obtain excellent characteristics to biased load, to improve the positional accuracy of a winding and to miniaturize size in the axial direction.
      SOLUTION: When a member constituting an air bearing is arranged on the fixing side of the motor 1, the uniformity of a magnetic field forming the torque of the motor 1 is maintained by disposing the components of the air bearing so as not to disturb the reluctance distribution of the magnetic core of the motor 1, and an electromagnetic torque ripple is reduced. The fixing side is formed in slotless structure in the above-mentioned arrangement, and a mechanical structural torque ripple is decreased. In the above-mentioned arrangement, configuration in which the components (an opening and a gas duct) of the air bearing having an effect on the magnetic characteristics of the motor 1 are positioned at places separate from the magnetic core can be formed. In the configuration, the gas duct and the opening in the components of the air bearing are disposed at places separate from the magnetic core.
      COPYRIGHT: (C)2000,JPO
    • 要解决的问题:为了降低电磁转矩脉动,为了获得优异的偏压负载特性,提高绕组的位置精度并使轴向尺寸小型化。 解决方案:当构成空气轴承的构件设置在电动机1的固定侧时,通过设置空气轴承的部件以保持电动机1的转矩的磁场的均匀性,从而不损害电动机1的磁阻 马达1的磁芯的分布以及电磁转矩波动减小。 固定侧在上述结构中形成为无槽结构,并且机械结构转矩波动减小。 在上述结构中,可以形成其中具有影响电动机1的磁特性的空气轴承的部件(开口和气体管道)位于与磁芯分离的位置的配置。 在该构造中,气体导管和空气轴承的部件中的开口设置在与磁芯分离的位置。
    • 45. 发明专利
    • DE602007000187D1
    • 2008-12-04
    • DE602007000187
    • 2007-04-11
    • FANUC LTD
    • KAWAI TOMOHIKOEBIHARA KENZOODA TAKAYUKI
    • B23Q1/62B23Q15/007B23Q15/24B29C33/42G02B6/00
    • A machining apparatus capable of irregularly forming a plurality of dimples on a surface of a workpiece in a short period of time. The machining apparatus includes a tool for machining a plurality of dimples on a surface of a workpiece, each dimple having a depth in a first direction; a drive unit for displacing the tool relative to the workpiece in the first direction and a second direction generally perpendicular to the first direction; a controller for controlling the drive unit so as to displace the tool relative to the workpiece in the first direction such that the tool cuts into or leaves the workpiece, while the tool is being moved relative to the workpiece in the second direction, wherein a trigger of the displacement of the tool in the first direction is timing calculated by using a second waveform, the second waveform being determined by comparing the magnitude of a first waveform with a predetermined threshold, at least one of frequency and amplitude of the first waveform being irregular.
    • 46. 发明专利
    • DE602007004279D1
    • 2010-03-04
    • DE602007004279
    • 2007-10-23
    • FANUC LTD
    • HON YONPYOEBIHARA KENZOKAWAI TOMOHIKO
    • G05B19/401G05B19/404
    • An ultra-precision machine tool capable of accurately detecting a machining start position, in which movable axes are supported by fluid bearings. A workpiece is mounted on a rotary table of a B axis, and the rotary table is mounted on an X axis that is a linear motion axis. A tool is mounted on a Y axis. The Y axis is mounted on a Z axis. The X axis is moved reciprocally each time the Z axis is moved a predetermined amount, a machining surface of the workpiece is scanned, and it is determined whether or not position deviation of the X, Y and B axes reaches or exceeds a reference value. The Y axis is driven and the tool is moved toward the workpiece a predetermined amount, and the above-described scan is performed. When the position deviation of the X, Y and B axes reaches or exceeds the reference value it is determined that contact between the tool and the workpiece has occurred, and this contact point is stored as the machining start position, the Y axis is skipped, and the tool is moved a predetermined amount in a direction away from the workpiece, thus enabling a point of maximum protrusion from the machining surface of the workpiece to be simply detected as the machining start point.
    • 50. 发明专利
    • DE602005008351D1
    • 2008-09-04
    • DE602005008351
    • 2005-12-21
    • FANUC LTD
    • KAWAI TOMOHIKOEBIHARA KENZO FANUC
    • B23Q11/00B23Q1/38G01B5/00
    • An air balance structure that compensates for the weight load of a movable member driven in a straight line along the vertical axis, with a simplified structure and at reduced cost. The box-shaped movable member has an open bottom that accommodates the stationary member therewithin, in which state the movable member is movably supported in the vertical direction by an air bearing created using a gap between the stationary member and the movable member. An air balance chamber that contains pressurized air is formed inside the movable member. After pressure-adjusted air is supplied from the outside to the gap from a jet port through a pipe inside the stationary member, the air flows into the air balance chamber. This flow seals the pressurized air inside the air balance chamber. Pressurized air exhaust is exhausted externally from an exhaust port through a pipe and a flow adjusting device.