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    • 1. 发明专利
    • Numerical controller and numerical control method
    • 数字控制器和数字控制方法
    • JP2009245164A
    • 2009-10-22
    • JP2008090949
    • 2008-03-31
    • Mitsubishi Electric Corp三菱電機株式会社
    • NAKAMURA NAOKISATO TOMONORI
    • G05B19/4103
    • G05B19/4103G05B2219/43162G05B2219/50353
    • PROBLEM TO BE SOLVED: To make machining be performed while smoothly operating a tip of a tool without changing an instruction point of a machining program even when there is an instruction of an intermittent attitude change of the tool or when there is an instruction of a discontinuous attitude change amount of the tool. SOLUTION: A rotation-axis filter processing part 5 applies moving average filter to an angle change amount between interpolation points 13 of a rotation angle of a rotation shaft according to a filter time constant previously imparted by a parameter or the like of a machine tool to smooth the angle change amount between the interpolation points 13. A translation-axis timing synchronization part 6 applies the moving average filter to a movement amount between interpolation points 14 of tool-tip positions of a translation axis to synchronize timing of movement of the translation axis with smoothing-processed rotation of the rotation shaft. A coordinate transformation part 7 performs coordinate transformation into a machine position 17 of the translation axis according to a configuration of the machine tool, from each tool-tip position 16 after the timing synchronization between the translation axes and each rotation angle 15 of the rotation axis after being filtered. COPYRIGHT: (C)2010,JPO&INPIT
    • 要解决的问题:即使当存在工具的间歇姿势改变的指令或者当存在指令时,也可以平滑地操作工具的尖端而不改变加工程序的指令点进行加工 的不连续的态度改变量的工具。 解决方案:旋转轴滤波处理部件5将移动平均滤波器应用于旋转轴的旋转角度的插值点13之间的角度变化量,该角度变化量根据由参数等预先赋予的滤波时间常数 平滑插补点13之间的角度变化量的机床。平移轴定时同步部6将移动平均滤波器应用于平移轴的工具尖端位置的插补点14之间的移动量,以使移动平均滤波器的移动定时 该平移轴具有旋转轴的平滑处理旋转。 坐标变换部7在平移轴与旋转轴的旋转角度15的定时同步之后,根据机床的结构,从各刀尖位置16进行平移轴的机械位置17的坐标变换 过滤后。 版权所有(C)2010,JPO&INPIT
    • 2. 发明专利
    • Numerical control device
    • 数控装置
    • JP2007279899A
    • 2007-10-25
    • JP2006103323
    • 2006-04-04
    • Mitsubishi Electric Corp三菱電機株式会社
    • SATO TOMONORINAKAMURA NAOKI
    • G05B19/416
    • PROBLEM TO BE SOLVED: To provide a numerical control apparatus which easily performs an acceleration/deceleration process responding to a velocity-acceleration characteristic or a torque characteristic of each axis. SOLUTION: The apparatus comprises: a combined velocity-combined acceleration characteristic calculating unit 105 for acquiring a combined velocity-combined acceleration characteristic C1 indicating a relation between combined velocity which is a tangent velocity along an indicated path and combined acceleration which is the maximum acceleration capable of being driven in a direction along the indicated path; and an acceleration/deceleration before interpolation processing unit 107 for acquiring the combined velocity after an acceleration/deceleration process by performing the acceleration/deceleration before interpolation process, based on the combined acceleration after acquiring the combined acceleration from an amount of movement or a direction vector of each axis acquired by an analyzing unit 102, the combined velocity-combined acceleration characteristic C1, and the present velocity. Since the combined velocity-combined acceleration characteristic C1 to be used at the acceleration/deceleration before interpolation processing unit 107 is acquired by the combined velocity-combined acceleration characteristic calculating unit 105, the acceleration/deceleration process responding to the velocity-acceleration characteristic or a torque characteristic of each axis is easily performed. COPYRIGHT: (C)2008,JPO&INPIT
    • 要解决的问题:提供一种能够根据每个轴的速度加速度特性或转矩特性容易地执行加速/减速过程的数值控制装置。 解决方案:该装置包括:组合速度组合加速度特性计算单元105,用于获取指示作为沿指示路径的切线速度的组合速度之间的关系的组合速度组合加速度特性C1和作为 能够沿着指示路径的方向驱动的最大加速度; 以及用于通过基于从移动量或方向矢量获取组合加速度之后的组合加速度,通过在插补处理之前执行加速/减速来获取加速/减速处理之后的组合速度的插值处理单元107之前的加速/减速 由分析单元102获取的每个轴,组合速度组合加速度特性C1和当前速度。 由组合速度合成加速度特性计算部105取得在加
      速处理部107之前的加速/减速时使用的组合速度合成加速度特性C1,对应于速度加速特性的加减速处理 各轴的转矩特性容易进行。 版权所有(C)2008,JPO&INPIT
    • 3. 发明专利
    • Working simulation apparatus and numerical control device
    • 工作模拟装置和数字控制装置
    • JP2011141673A
    • 2011-07-21
    • JP2010001356
    • 2010-01-06
    • Mitsubishi Electric Corp三菱電機株式会社
    • MIYATA AKIRAIRIGUCHI KENJINAKAMURA NAOKISATO TOMONORI
    • G05B19/4068B23Q15/00
    • PROBLEM TO BE SOLVED: To obtain a working simulation apparatus, along with a numerical control device, capable of determining a working failure or facilitating estimation of the occurrence factor of the working failure.
      SOLUTION: The working simulation apparatus includes: a machining simulator 3 for simulating the shape of a workpiece expressed by a distance field model; a comparison object selection unit 4 for selecting a comparison object shape from among the simulation result; a shape rendering processing unit 5 for performing rendering processing for displaying the simulation result with graphics; and a simulation execution control unit 2. By assuming, in the rendering processing, a projection face on which pixels are arrayed, a light beam following a projecting direction as a direction which is vertical to the projection face from each of the pixels on the projection face, the intersection position of a comparison object shape and the light beam, a shape rendering processing unit 5 determines the luminance value of each of the pixels based on a distance value with code for a reference standard shape and a difference between secondary geometrical featured values which can be derived from a distance field, at the intersection position.
      COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:为了获得能够确定工作故障或便于估计工作故障的发生因素的数字控制装置的工作模拟装置。 解决方案:工作模拟装置包括:用于模拟由距离场模型表示的工件的形状的加工模拟器3; 比较对象选择单元4,用于从模拟结果中选择比较对象形状; 形状描绘处理单元5,用于执行用图形显示模拟结果的绘制处理; 以及仿真执行控制单元2.通过在渲染处理中假设投影像素排列的投影面,沿着投影方向的光束作为与投影面上的每个像素垂直于投影面的方向 面部,比较对象形状和光束的交叉位置,形状描绘处理单元5基于与参考标准形状的代码和二次几何特征值之间的差异的距离值来确定每个像素的亮度值 其可以从距离场导出,在交叉位置。 版权所有(C)2011,JPO&INPIT
    • 4. 发明专利
    • Numerical control device
    • 数控装置
    • JP2009080616A
    • 2009-04-16
    • JP2007248902
    • 2007-09-26
    • Mitsubishi Electric Corp三菱電機株式会社
    • NAGAOKA KOTARONAKAMURA NAOKI
    • G05B19/404B23Q17/00
    • PROBLEM TO BE SOLVED: To provide a numerical control device for correctly measuring a machine position during a test operation by using a measuring unit for measuring a machine position, obtaining a machine error from the measurement result, and correctly obtaining a parameter for correcting the machine error.
      SOLUTION: This numerical control device for controlling the relative position of a main axis with respect to a table of a machine by driving a motor so that a detected position to be output from a detector 4 detecting the position of a motor 3 may follow a commanded position is provided with: a measuring unit 5 for machine position measurement for measuring the displacement of the relative position of a main axis to the table of a machine in a prescribed direction; a machine position calculating part 6 for calculating the machine position based on the detected position output from the detector 4 and the detected position output from the measuring unit 5 for machine position measurement and a signal for machine position measurement at the same time; a machine error difference measurement part 7 for calculating a machine error based on the commanded position, the detected position output from the detector 4 and the machine position calculated by the machine position calculation part 6; and a parameter changing part 8 for changing the parameter for error correction based on the machine error.
      COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:提供一种用于在测试操作期间正确测量机器位置的数字控制装置,通过使用用于测量机器位置的测量单元,从测量结果获得机器误差,并且正确地获得用于 纠正机器错误。 解决方案:该数控装置用于通过驱动电机来控制主轴相对于机台的相对位置,使得从检测电动机3的位置的检测器4输出的检测位置可以 按照命令位置设置有:用于机器位置测量的测量单元5,用于测量主轴相对于机器的工作台的相对位置在规定方向上的位移; 机器位置计算部6,用于基于从检测器4输出的检测位置和从用于机器位置测量的测量单元5输出的检测位置和用于机器位置测量的信号同时计算机器位置; 用于根据指令位置计算机器误差的机器误差差测量部分7,从检测器4输出的检测位置和由机器位置计算部分6计算的机器位置; 以及用于根据机器错误改变用于纠错的参数的参数改变部分8。 版权所有(C)2009,JPO&INPIT
    • 5. 发明专利
    • Numerical control device and production system
    • 数控装置和生产系统
    • JP2011186939A
    • 2011-09-22
    • JP2010053569
    • 2010-03-10
    • Mitsubishi Electric Corp三菱電機株式会社
    • NISHINO SHINYANAKAMURA NAOKISATO TOMONORI
    • G05B19/4103B23Q15/00
    • PROBLEM TO BE SOLVED: To provide, in a numerical control device configured to perform processing by compressing a plurality of instruction paths having short path lengths into one, the numerical control device which can perform the processing without deteriorating the processing accuracy at high speed by preventing change in the feed rate of a tool due to the compression. SOLUTION: The device includes a determination allowable feed rate calculation part 3, a compression propriety determination part 4, a compression processing part 5, and an interpolation allowable feed rate calculation part 7. The determination allowable feed rate calculation part 3 calculates, based on an instruction path 12 or/and an after-compression instruction path, a determination pre-compression allowable feed rate or/and a determination after-compression allowable feed rate. The compression propriety determination part 4 determines the propriety of compression based on the determination pre-compression allowable feed rate or/and the determination after-compression allowable feed rate. The compression processing part 5 forms an after-compression instruction path 16 by compressing a plurality of instruction paths into one path based on a compression propriety determination result 15 in the compression propriety determination part 4, and the interpolation allowable feed rate calculation part 7 calculates an interpolation allowable feed state based on the after-compression instruction path 16. COPYRIGHT: (C)2011,JPO&INPIT
    • 解决的问题:在配置为通过将具有短路径长度的多条指令路径压缩到一个的数字控制装置中,可以在不恶化处理精度的情况下进行处理的数控装置 通过防止由于压缩而导致的工具进给速度的变化。 解决方案:该装置包括确定允许进给速率计算部分3,压缩合规确定部分4,压缩处理部分5和插入允许进给速率计算部分7.确定容许进给速率计算部分3, 基于指令路径12或/和后压缩指令路径,确定预压缩允许进给速率或/和确定后压缩允许进给速率。 压缩合格确定部分4基于确定预压缩允许进给速率或/和确定后压缩允许进给速率来确定压缩的适当性。 压缩处理部分5通过基于压缩合规确定部分4中的压缩合规确定结果15将多条指令路径压缩成一条路径来形成压缩后指令路径16,插值允许进给率计算部分7计算出 基于后压缩指令路径16的插补允许进给状态。版权所有:(C)2011,JPO&INPIT
    • 7. 发明专利
    • CAVITY RESONATOR
    • JPS6477203A
    • 1989-03-23
    • JP23265487
    • 1987-09-18
    • MITSUBISHI ELECTRIC CORP
    • NAKAMURA NAOKI
    • H01P7/06
    • PURPOSE:To control the energy propagation by allowing the direction of a conductor, which is taken in and out between central conductors in a side coupling cavity of a cavity resonator, to coincide with the direction of the electromagnetic field and providing a member, which short-circuits central conductors, in the front end of said conductor as one body. CONSTITUTION:A side coupling cavity 13A is provided for acceleration cavities 9 and 10. The power of the electromagnetic wave supplied from a power supply part to the acceleration cavity 10 is propagated to the side coupling space 13A through a coupling hole 18 and reaches the acceleration cavity 9 through a coupling hole 17. Resonance frequencies of acceleration cavities 9 and 10 and the side coupling cavity 13A are equalized. When a T type conductor 31 is moved to a position indicated by a dotted line, the TEM mode is excited in the cavity 13A, and the resonance frequency at this time is set to be equal to the resonance frequency of acceleration cavities 9 and 10. The electromagnetic wave between the coupling cavity 13A and coupling holes 17 and 18 is greatly disturbed and the phase difference is 180 deg., and the phase difference between acceleration cavities 9 and 10 is 0 deg., and the energy gain is zero between acceleration cavities 9 and 10. Thus, the number and positions of side coupling cavities are selected to easily change the transmission energy.
    • 8. 发明专利
    • HIGH FREQUENCY WINDOW
    • JPS6423601A
    • 1989-01-26
    • JP17899087
    • 1987-07-20
    • MITSUBISHI ELECTRIC CORP
    • OGURA KAZUMASANAKAMURA NAOKI
    • H01J23/40H01P1/08
    • PURPOSE:To supress a transmission loss and exothermic of high-frequency waves and, at the same time, to carry out stable high-frequency wave transmission, by providing Cu-plated layer to prescribed sections of 1st and 2nd flanges. CONSTITUTION:High frequency waves entering from a 1st window 1W of the 1st flange 1 enter into a vacuum chamber 6V after passing through a ceramic plate 5 from a pressure chamber 6P and further enter into an accelerator which is not shown in the figure from a 2nd window 2W of the 2nd flange 2. Since Cu-plated layers 7 are provided on the 1st and 2nd flanges 1 and 2, stable high- frequency wave transmission can be carried out when the high-frequency waves are passed through the high frequency windows, since the transmission loss and exothermic of the high-frequency waves can be suppressed by means of the layers 7. Moreover, since when the layers 7 are provided on the 1st and 2nd flanges 1 and 2, the transmission loss and exothermic of the high-frequency waves can be suppressed, the high frequency windows can be constituted inexpensively.
    • 10. 发明专利
    • HIGH-FREQUENCY ACCELERATING DEVICE
    • JPH11204299A
    • 1999-07-30
    • JP485598
    • 1998-01-13
    • MITSUBISHI ELECTRIC CORP
    • NAKAMURA NAOKI
    • H05H7/18
    • PROBLEM TO BE SOLVED: To provide a high-frequency accelerating device preventing the characteristic deterioration of a charged particle beam and its collision with accelerating cavities without using a focusing device even if the charges of the charged particle beam are large at a low cost. SOLUTION: This accelerating device is provided with at least one or more accelerating cavities 11-14 having bore holes 31A-35A formed with noses 41A-45A for passing a charged particle beam B at both end sections, an inlet port 1a of the charged particle beam B formed by one bore hole, and an outlet port 1b of the charged particle beam B formed by another bore hole. When a high frequency is applied to the accelerating cavities 11-14, the charged particle beam B passing from the inlet port 1a to the outlet port 1b is focused and accelerated. The inner diameter of the outlet port 1b is made larger than the inner diameter of the inlet port 1a.