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    • 2. 发明授权
    • Zero-point return method
    • 零点返回方式
    • US4680520A
    • 1987-07-14
    • US843697
    • 1986-03-07
    • Kenichi ToyodaShinsuke SakakibaraHaruyuki Ishikawa
    • Kenichi ToyodaShinsuke SakakibaraHaruyuki Ishikawa
    • G05D3/12B23Q15/00G05B19/23G05B19/401G05B11/18
    • G05B19/23G05B19/4015G05B2219/50025
    • A method of returning a movable machine element having a flat dog to a zero point includes advancing the movable machine element in the direction of the flat dog, stopping the movable machine element after a changeover signal (S.sub.D) produced by the flat dog is detected, reversing the direction of the movable machine element, moving the movable machine element a first predetermined distance (L) and stopping it after the changeover signal (S.sub.D) is received again, then moving the movable machine element in the opposite direction a second predetermined distance (l) shorter than the first predetermined distance (L) and stopping the movable machine element, thereafter moving the movable machine element at a low velocity and stopping it at an initial one-revolution signal of a servomotor, which operates the movable machine element, after the changeover signal produced by the flat dog is detected.
    • PCT No.PCT / JP85 / 00395 Sec。 371日期:1986年3月7日 102(e)1986年3月7日PCT PCT公布1986年3月7日PCT公布。 出版物WO86 / 00727 日本,1986年1月30日。将具有扁平狗的可动机械元件返回到零点的方法包括使可动机械元件沿扁平的方向前进,在产生转换信号(SD)之后停止可动机械元件 通过检测到平头犬,反转可动机构元件的方向,使可动机构元件移动第一预定距离(L)并在再次接收到转换信号(SD)之后停止,然后将可移动机器元件移动到 相反方向上比第一预定距离(L)短的第二预定距离(l)并且使可移动机器元件停止,此后以低速移动可移动机器元件并将其停在伺服电动机的初始一转信号, 在检测到由扁平狗产生的转换信号之后,操作可移动机器元件。
    • 3. 发明授权
    • Robot system safety method
    • 机器人系统安全方法
    • US4697979A
    • 1987-10-06
    • US782714
    • 1985-09-23
    • Seiichiro NakashimaKenichi ToyodaShinsuke SakakibaraNobutoshi Torii
    • Seiichiro NakashimaKenichi ToyodaShinsuke SakakibaraNobutoshi Torii
    • G05B9/02B25J9/16B25J9/22B25J19/06G05B19/19G05B19/4063G05B19/42B25J9/00
    • B25J19/06
    • A safety method in a robot system including at least a robot (1), peripheral equipment (2-5) serviced by the robot, a robot control unit (6) which causes the robot to execute predetermined services for the peripheral equipment, and a teach control panel (9). A door (11) is provided at the entrance to a robot operating zone, and the door is provided with a safety switch (12) for terminating automatic operation of the robot when the robot is in an automatic operating state. When the safety switch is actuated by opening the door, robot motion in the automatic operating state is decelerated and stopped. During the time that the safety switch is in the actuated state, the robot is placed in a playback operation state to enable control that is performed through the teach control panel.
    • PCT No.PCT / JP85 / 00039 Sec。 371日期:1985年9月23日 102(e)1985年9月23日PCT 1985年1月31日PCT PCT。 出版物WO85 / 03472 日期:1985年8月15日。一种机器人系统中的安全方法,至少包括由机器人服务的机器人(1),外围设备(2-5),机器人控制单元(6),其使机器人执行预定的服务 用于外围设备和教学控制面板(9)。 在机器人操作区的入口处设置门(11),并且门设有安全开关(12),用于当机器人处于自动操作状态时终止机器人的自动操作。 当通过打开门来启动安全开关时,自动运行状态下的机器人运动减速停止。 在安全开关处于启动状态的时候,将机器人置于重放操作状态,以使能通过教导控制面板执行的控制。
    • 7. 发明授权
    • Uniform velocity control method
    • 均匀速度控制方法
    • US4754392A
    • 1988-06-28
    • US795936
    • 1985-10-17
    • Seiichiro NakashimaKenichi ToyodaShinsuke SakakibaraHaruyuki Ishikawa
    • Seiichiro NakashimaKenichi ToyodaShinsuke SakakibaraHaruyuki Ishikawa
    • B25J9/16B25J9/18B25J13/00G05B19/416G05B19/407G05D13/00
    • G05B19/416G05B2219/43158G05B2219/49285
    • A uniform velocity control method for rotating a first movable element (3) at a uniform velocity in a rectilinear-to-rotational motion converting mechanism, in which a second movable element (2c) is moved along a linear shaft (2a) and the first movable element is rotated in dependence upon rectilinear movement of the second movable element. The uniform velocity control method includes (1) a second step of monitoring a position of the second movable element along the linear shaft; (2) a second step of calculating a traveling velocity of the second movable element, which traveling velocity is for rotating the first movable element at a uniform velocity, in dependence upon the position of the second movable element along the linear shaft; and (3) a third step of moving the second movable element at the calculated traveling velocity to make the rotational velocity of the first movable element uniform.
    • PCT No.PCT / JP85 / 00067 Sec。 371日期1985年10月17日第 102(e)日期1985年10月17日PCT提交1985年2月19日PCT公布。 公开号WO85 / 03784 日本1985年8月29日。一种均匀速度控制方法,用于在直线向旋转运动转换机构中以均匀的速度旋转第一可移动元件(3),其中第二可移动元件(2c)沿着线性 轴(2a)和第一可移动元件根据第二可移动元件的直线运动而旋转。 均匀速度控制方法包括:(1)第二步骤,监视第二可移动元件沿着直线轴的位置; (2)第二步骤,根据第二可移动元件沿着线性轴的位置,计算第二可移动元件的行进速度,行进速度用于以均匀的速度旋转第一可移动元件; 和(3)第三步骤,以计算的行进速度移动第二可移动元件,以使第一可移动元件的旋转速度均匀。
    • 9. 发明授权
    • Acceleration and deceleration control system
    • 加减速控制系统
    • US4706003A
    • 1987-11-10
    • US843694
    • 1986-03-04
    • Seiichiro NakashimaKenichi ToyodaShinsuke Sakakibara
    • Seiichiro NakashimaKenichi ToyodaShinsuke Sakakibara
    • G05B19/416G05B19/42
    • G05B19/416G05B2219/34042G05B2219/43048
    • An acceleration and deceleration system smoothly controls acceleration and deceleration of an electric motor for driving a movable member of a machine tool or a robot. The acceleration and deceleration system has a linear acceleration and deceleration circuit (3) for receiving interpolation data issued from a pulse distributor (5) and effecting a linear acceleration and deceleration computation on the received data, and an exponential acceleration and deceleration circuit (4) for receiving an output signal from the linear acceleration and deceleration circuit (3) and effecting an exponential acceleration and deceleration computation on the output signal, the circuits (3), (4) being connected in series with each other. The exponential acceleration and deceleration circuit (4) reduces abrupt changes of the controlled speed which are a drawback of the linear acceleration and deceleration circuit (3) prevent shocks from being produced when an axis starts moving and is decelerated thereby providing smooth and accurate acceleration and deceleration control.
    • PCT No.PCT / JP85 / 00377 Sec。 371日期:1986年3月4日 102(e)1986年3月4日PCT PCT。 出版物WO86 / 00730 1986年1月30日。加速和减速系统平滑地控制用于驱动机床或机器人的可移动部件的电动机的加速和减速。 加速和减速系统具有线性加速和减速电路(3),用于接收从脉冲分配器(5)发出的插补数据,对接收到的数据进行线性加速和减速运算,以及指数加速和减速电路(4) 为了从线性加速和减速电路(3)接收输出信号并对输出信号进行指数加速和减速运算,电路(3),(4)彼此串联连接。 指数加速和减速电路(4)减少受控速度的突然变化,这是线性加速和减速电路的缺点(3)防止当轴开始移动并减速时产生冲击,从而提供平滑和准确的加速度, 减速控制。
    • 10. 发明授权
    • Human robot interactive system
    • 人机交互系统
    • US08788093B2
    • 2014-07-22
    • US13185667
    • 2011-07-19
    • Shinsuke SakakibaraMasahiro MoriokaSatoshi Adachi
    • Shinsuke SakakibaraMasahiro MoriokaSatoshi Adachi
    • G06F19/00G05B19/04G05B19/18H02H11/00
    • B25J19/06B25J9/1674B25J13/085B25J21/00G05B2219/40198G05B2219/40202
    • A human-robot interactive system in which a robot and a human share an area for performing interactive work, the human-robot interactive system including a force sensor which is set at an end effector attached to a front end of the robot or which is set at the robot and, when a detected value of the force sensor exceeds a predetermined value, is configured to stop the robot or controlling operation of the robot so that a detected value of the force sensor becomes smaller, the system further including a limiter which limits a work area of said human so as to prevent contact by the human with the first robot portion of the robot that is positioned further from the human than a set position of the force sensor during operation even when the robot approaches the human.
    • 一种人机交互系统,其中机器人和人共享用于进行交互工作的区域,所述人 - 机器人交互系统包括力传感器,所述力传感器被设置在附接到所述机器人的前端的末端执行器或被设置 在机器人处,并且当力传感器的检测值超过预定值时,被配置为停止机器人或控制机器人的操作,使得力传感器的检测值变小,该系统还包括限制器 所述人的工作区域,以便即使在机器人接近人的情况下,也可以防止操作人员与机器人远离人的第一机器人部分接触,而不是在操作过程中力传感器的设定位置。