会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 6. 发明公开
    • Robot
    • 机器人
    • EP2703130A3
    • 2015-08-12
    • EP13182169.6
    • 2013-08-29
    • Seiko Epson Corporation
    • Gomi, AkihiroMotoyoshi, MasakiNiu, Akio
    • B25J9/16
    • B25J9/1651B25J9/1638B25J9/1694B25J18/00G05B2219/39195G05B2219/39335G05B2219/40597Y10S901/02Y10S901/09Y10S901/27Y10S901/46Y10T74/20329
    • A robot (1) includes a base (11), a first arm (12) that rotates around a first rotation axis (01), a second arm (13) that rotates around a second rotation axis (02) in a direction different from the first rotation axis (O1), a third arm (14) that rotates around a third rotation axis (03) in a direction parallel to the second rotation axis (02), a first inertia sensor (31), a second inertia sensor (32a), a first angle sensor (411), a third angle sensor (413), and drive sources that rotates the respective arms. The first inertia sensor (31) is installed at the first arm (12), and the second inertia sensor (32a) is installed at the third arm (14). The first angle sensor (411) is installed at a first drive source (401), and the third angle sensor (413) is installed at a third drive source (403). Angular velocities obtained from the detection of the first inertia sensor (31) and the first angle sensor (411) are fed back to a first drive source control unit (201). Angular velocities obtained from the detection of the second inertia sensor (32a) and the third angle sensor (413) are fed back to a second drive source control unit (202).
    • 本发明提供一种机器人(1),其包括基座(11),绕第一旋转轴(01)旋转的第一臂(12),以不同于第二旋转轴(02)的方向绕第二旋转轴(02)旋转的第二臂 第一旋转轴(O1),在与第二旋转轴(O2)平行的方向上绕第三旋转轴(03)旋转的第三臂(14),第一惯性传感器(31),第二惯性传感器 32a),第一角度传感器(411),第三角度传感器(413)以及使各个臂旋转的驱动源。 第一惯性传感器(31)安装在第一臂(12)上,第二惯性传感器(32a)安装在第三臂(14)上。 第一角度传感器(411)安装在第一驱动源(401)处,并且第三角度传感器(413)安装在第三驱动源(403)处。 从第一惯性传感器(31)和第一角度传感器(411)的检测获得的角速度被反馈到第一驱动源控制单元(201)。 从第二惯性传感器(32a)和第三角度传感器(413)的检测获得的角速度被反馈到第二驱动源控制单元(202)。
    • 7. 发明公开
    • Robot, robot control device, and robot system
    • Roboter,Robotersteuervorrichtung和Robotersystem
    • EP2789429A2
    • 2014-10-15
    • EP14162332.2
    • 2014-03-28
    • Seiko Epson Corporation
    • Niu, Akio
    • B25J9/04B25J13/08
    • B25J9/1651B25J9/04B25J9/046B25J9/1638B25J9/1694B25J13/088Y10S901/09
    • A robot includes a base, a first arm which is connected to the base rotatably around a first rotating axis as a rotation center, a second arm which is connected to the first arm rotatably around a second rotating axis, which is an axis orthogonal to the first rotating axis or an axis parallel to the axis orthogonal to the first rotating axis, as a rotation center, a third arm which is connected to the second arm rotatably around a third rotating axis, which is an axis parallel to the second rotating axis, as a rotation center, a first angular velocity sensor which is provided in the first arm and in which a detection axis of angular velocity is parallel to the first rotating axis, and a second angular velocity sensor which is provided in the second arm and in which a detection axis of angular velocity is parallel to the third rotating axis.
    • 一种机器人,包括基座,第一臂,其以可旋转的方式围绕作为旋转中心的第一旋转轴线可旋转地连接到基座;第二臂,其以与第二旋转轴正交的第二旋转轴线可旋转地连接到第一臂; 第一旋转轴线或平行于与第一旋转轴线正交的轴线的轴线作为旋转中心,第三臂臂可旋转地围绕作为平行于第二旋转轴线的轴线的第三旋转轴线连接到第二臂臂, 作为旋转中心,设置在第一臂中并且其中角速度的检测轴与第一旋转轴平行的第一角速度传感器和设置在第二臂中的第二角速度传感器, 角速度的检测轴平行于第三旋转轴。
    • 10. 发明公开
    • METHOD TO CONTROL A ROBOT DEVICE AND ROBOT DEVICE
    • 一种用于控制机器人设备和机械手设备
    • EP2409203A1
    • 2012-01-25
    • EP10711542.0
    • 2010-02-11
    • ETH Zurich
    • RIENER, RobertVALLERY, HeikeDUSCHAU-WICKE, Alexander
    • G05B19/423B25J9/16
    • B25J9/1638G05B19/423G05B2219/36429G05B2219/45109G05B2219/45112Y10S901/02
    • A method to control a robot device which comprises at least one manipulator (2) which is moveable in an operating space, at least one actuator (3) which actuates said manipulator, a sensor arrangement having at least one position sensor (4) to determine the actual position of the manipulator (2) and a controller (5) which controls said actuator (3). Said manipulator moves along an actual trajectory (TP) by means of an external force provided by an operator (7). Said actuator provides compensation forces onto the manipulator influencing the torques or forces exchanged between operator and manipulator. The controller comprises a conservative force field module comprising a conservative force field which is defined by a method comprising the steps of defining at least one of said predefined trajectories (TP) in the operating space; creating a force field or calculating forces, respectively, based on positions of the manipulator in the operating space on said predefined trajectories and based on at least one of the velocities of the predefined trajectories and/or of the accelerations of the predefined trajectories; and calculating a conservative force field based on said force field as a function of the position of the manipulator which conservative force field serves to determine control signals. The controller provides said control signals for said actuator which provides said compensation force based on the control signals, wherein the control signals are based on the conservative force field and on the actual position of the manipulator.