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    • 1. 发明授权
    • Robot cyclic locomotion using a dynamic object
    • 机器人循环运动使用动态对象
    • US09156159B2
    • 2015-10-13
    • US13415605
    • 2012-03-08
    • Jessica HodginsKatsu YamaneYu Zheng
    • Jessica HodginsKatsu YamaneYu Zheng
    • G06F19/00B25J9/00B62D57/032B62D57/02G05B15/00B25J13/08
    • B25J9/00B25J13/085B25J13/088B62D57/02B62D57/032G05B15/00
    • Techniques are disclosed for optimizing and maintaining cyclic biped locomotion of a robot on an object. The approach includes simulating trajectories of the robot in contact with the object. During each trajectory, the robot maintains balance on the object, while using the object for locomotion. The approach further includes determining, based on the simulated trajectories, an initial state of a cyclic gait of the robot such that the simulated trajectory of the robot starting from the initial state substantially returns to the initial state at an end of one cycle of the cyclic gait. In addition, the approach includes sending joint angles and joint velocities of the initial state to a set of joint controllers of the robot to cause a leg of the robot to achieve the initial state so the robot moves through one or more cycles of the cyclic gait.
    • 公开了用于优化和维持机器人在物体上的循环双足运动的技术。 该方法包括模拟与物体接触的机器人的轨迹。 在每个轨迹期间,机器人在使用对象进行移动时,保持物体上的平衡。 该方法还包括基于模拟轨迹确定机器人的循环步态的初始状态,使得从初始状态开始的机器人的模拟轨迹在循环的一个循环的结尾基本上返回到初始状态 步态。 此外,该方法包括将初始状态的关节角度和关节速度发送到机器人的一组联合控制器,以使机器人的腿部达到初始状态,使得机器人通过循环步态的一个或多个循环 。
    • 2. 发明申请
    • Kinematic and Dynamic Calibration Methods for Legged Robots with Force-Controlled Joints
    • 具有力控关节的腿式机器人的运动和动态校准方法
    • US20130131865A1
    • 2013-05-23
    • US13302728
    • 2011-11-22
    • Katsu Yamane
    • Katsu Yamane
    • G05B19/04
    • B25J9/1692B62D57/032
    • A method for calibrating a force-controlled, biped humanoid robot. The method includes selecting a kinematic constraint for the humanoid robot such as maintain the two feet in flat contact with the floor. The method includes moving the humanoid robot into a plurality of poses while enforcing the kinematic constraint. The method includes, during the moving or posing step, collecting angle measurements for a set of joints of the humanoid robot and then, with a processor, running a kinematic calibration module to determine angular offsets for the robot joints to allow determination of joint torques by a robot controller with truer angular orientations. The method includes, during the moving step, collecting relative orientation data from an inertial movement unit (IMU) mounted on the pelvis link, and the angular offsets are determined using relative orientation data. All data is collected from devices on the robot, and no external data collection is required.
    • 一种用于校准力控制的两足动物人形机器人的方法。 该方法包括选择人形机器人的运动约束,例如保持两脚与地面平坦接触。 该方法包括在执行运动约束的同时将人形机器人移动到多个姿势中。 该方法包括:在移动或摆动步骤期间,收集角形测量用于人形机器人的一组关节,然后利用处理器运行运动学校准模块,以确定机器人关节的角度偏移,以允许通过以下方式确定关节扭矩 一个具有更好角度定向的机器人控制器。 该方法包括:在移动步骤期间,收集来自安装在骨盆连杆上的惯性运动单元(IMU)的相对取向数据,并且使用相对取向数据确定角度偏移。 所有数据都是从机器人上的设备收集的,不需要外部数据收集。
    • 3. 发明授权
    • Kinematic and dynamic calibration methods for legged robots with force-controlled joints
    • 具有力控关节的腿式机器人的运动和动态校准方法
    • US08805584B2
    • 2014-08-12
    • US13302728
    • 2011-11-22
    • Katsu Yamane
    • Katsu Yamane
    • G05B19/04B25J9/16
    • B25J9/1692B62D57/032
    • A method for calibrating a force-controlled, biped humanoid robot. The method includes selecting a kinematic constraint for the humanoid robot such as maintain the two feet in flat contact with the floor. The method includes moving the humanoid robot into a plurality of poses while enforcing the kinematic constraint. The method includes, during the moving or posing step, collecting angle measurements for a set of joints of the humanoid robot and then, with a processor, running a kinematic calibration module to determine angular offsets for the robot joints to allow determination of joint torques by a robot controller with truer angular orientations. The method includes, during the moving step, collecting relative orientation data from an inertial movement unit (IMU) mounted on the pelvis link, and the angular offsets are determined using relative orientation data. All data is collected from devices on the robot, and no external data collection is required.
    • 一种用于校准力控制的两足动物人形机器人的方法。 该方法包括选择人形机器人的运动约束,例如保持两脚与地面平坦接触。 该方法包括在执行运动约束的同时将人形机器人移动到多个姿势中。 该方法包括:在移动或摆动步骤期间,收集角形测量用于人形机器人的一组关节,然后利用处理器运行运动学校准模块,以确定机器人关节的角度偏移,以允许通过以下方式确定关节扭矩 一个具有更好角度定向的机器人控制器。 该方法包括:在移动步骤期间,收集来自安装在骨盆连杆上的惯性运动单元(IMU)的相对取向数据,并且使用相对取向数据确定角度偏移。 所有数据都是从机器人上的设备收集的,不需要外部数据收集。
    • 8. 发明申请
    • BODY DYNAMICS CALCULATION METHOD, BODY DYNAMICS MODEL AND MODEL DATA THEREOF, AND BODY-MODEL GENERATION METHOD
    • 身体动力学计算方法,身体动力学模型及其模型数据,以及身体模型生成方法
    • US20090132217A1
    • 2009-05-21
    • US12348461
    • 2009-01-05
    • Yoshihiko NAKAMURAKatsu YamaneIchiro SuzukiKazutaka KuriharaKoji Tatani
    • Yoshihiko NAKAMURAKatsu YamaneIchiro SuzukiKazutaka KuriharaKoji Tatani
    • G06G7/60G06F17/10
    • G09B23/32A61B5/1107A61B5/4519A61B5/4523A61B5/4528A61B5/4533G06F19/00
    • A forward/reverse mechanics calculation of an accurate model of a human body having bone geometrical data and muscle/cord/band data is carried out at high speed. When a new skeleton geometrical model is given, a mapping between the new skeleton geometrical model and a pre-defined normal body model representing a normal body is defined to automatically produce a new body model. A processing unit reads model data to be subjected to mechanics calculation, reads a produced force f of a wire/virtual link exerted on the body model, reads the angle, position and velocity of the current rigid body link, calculates the Jacobian JL of the length of each wire concerning the joint angle, converts the read produced force f of the muscle/cord/band into a generalized force τG according to the defined Jacobian JL, stores the generalized force, determines the acceleration of the whole body of a motion produced when the generalized force τG is exerted on the body and calculates the velocity and position of each rigid body link, and stores them.
    • 具有骨骼几何数据和肌肉/绳索/带数据的人体的精确模型的正向/反向力学计算以高速进行。 当给出新的骨架几何模型时,新骨架几何模型和表示正常身体的预定义正常体模型之间的映射被定义为自动产生新的身体模型。 处理单元读取要进行力学计算的模型数据,读取施加在身体模型上的线/虚连接的产生力f,读取当前刚体连杆的角度,位置和速度,计算出当前刚体连杆的雅可比JL 每个电线的关节角度的长度将肌肉/绳索/带的读取产生的力f转换成根据定义的雅可比JL的广义力tauG,存储广义力,确定产生的运动的全身的加速度 当广义力tauG施加在身体上并计算每个刚体连杆的速度和位置,并存储它们。
    • 9. 发明授权
    • Body dynamics calculation method, body dynamics model and model data thereof, and body-model generation method
    • 身体动力学计算方法,身体动力学模型及其模型数据,以及身体模型生成方法
    • US07490012B2
    • 2009-02-10
    • US10515019
    • 2003-05-21
    • Yoshihiko NakamuraKatsu YamaneIchiro SuzukiKazutaka KuriharaKoji Tatani
    • Yoshihiko NakamuraKatsu YamaneIchiro SuzukiKazutaka KuriharaKoji Tatani
    • G01L1/00
    • G09B23/32A61B5/1107A61B5/4519A61B5/4523A61B5/4528A61B5/4533G06F19/00
    • A forward/reverse mechanics calculation of an accurate model of a human body having bone geometrical data and muscle/cord/band data is carried out at high speed. When a new skeleton geometrical model is given, a mapping between the new skeleton geometrical model and a pre-defined normal body model representing a normal body is defined to automatically produce a new body model. A processing unit reads model data to be subjected to mechanics calculation, reads a produced force f of a wire/virtual link exerted on the body model, reads the angle, position and velocity of the current rigid body link, calculates the Jacobian JL of the length of each wire concerning the joint angle, converts the read produced force f of the muscle/cord/band into a generalized force τG according to the defined Jacobian JL, stores the generalized force, determines the acceleration of the whole body of a motion produced when the generalized force τG is exerted on the body and calculates the velocity and position of each rigid body link, and stores them.
    • 具有骨骼几何数据和肌肉/绳索/带数据的人体的精确模型的正向/反向力学计算以高速进行。 当给出新的骨架几何模型时,新骨架几何模型和表示正常身体的预定义正常体模型之间的映射被定义为自动产生新的身体模型。 处理单元读取要进行力学计算的模型数据,读取施加在身体模型上的线/虚连接的产生力f,读取当前刚体连杆的角度,位置和速度,计算出当前刚体连杆的雅可比JL 每个电线的关节角度的长度将肌肉/绳索/带的读取产生的力f转换成根据定义的雅可比JL的广义力tauG,存储广义力,确定产生的运动的全身的加速度 当广义力tauG施加在身体上并计算每个刚体连杆的速度和位置,并存储它们。