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    • 7. 发明授权
    • Control device for dynamometer system
    • US10371589B2
    • 2019-08-06
    • US15544492
    • 2016-01-08
    • MEIDENSHA CORPORATION
    • Takao AkiyamaNobuhiko Asakura
    • G01L3/04G01M15/04G01L25/00G01L3/24
    • The purpose of the present invention is to provide a control device for a dynamometer system, with which, by a simple method, an unloaded state can be reproduced highly accurately when a test piece is started. A dynamo control device 6 is provided with: an integral control input computation unit 611 for computing the integral value of axle torque deviation, and multiplying the sum thereof and a correction value by an integral gain to compute an integral control input; a correction value computation unit 612 for multiplying an inertia compensation quantity Jcmp by the dynamo rotation frequency to compute a correction value; a non-integral control input computation unit 613 for designating, as a non-integral control input, the output of a prescribed transmission function Ge0(s) having axle torque deviation as input; and a totaling unit 614 for totaling the integral control input and the non-integral control input in order to generate a torque current command signal to the dynamometer. The transmission function Ge0(s) of the non-integral control input computation unit 613 is derived by separating the integrator from a transmission function Ge(s) having an axle torque control function, in such a way as to satisfy the relational equation (Ge(s)=Ki/s+Ge0(s)).
    • 10. 发明授权
    • Compliant force sensor for robot actuation
    • 用于机器人启动的适应力传感器
    • US09513176B1
    • 2016-12-06
    • US14292979
    • 2014-06-02
    • Meka Robotics, LLC
    • Jeff WeberAaron EdsingerAndy Metzger
    • G01L3/08G01L1/04G01L3/04
    • G01L1/04G01L3/04G01L3/1407G01L3/1457G01L3/1478G01L5/16G01L5/161
    • Example embodiments may relate to a compliant force sensor used in actuated and non-actuated systems. For instance, a structure (e.g., a transmission) may be configured to receive a force based on application of a load to the structure. A rigid member may be coupled to the structure and configured to provide a first deformation based on application of the load to the structure and transfer of the force to the rigid member. An elastic element may provide compliance and may be connected to the rigid member such that the rigid member is configured to further transfer the force to the elastic element. The elastic member may be configured to provide a second deformation under application of the load that is larger than the first deformation. A sensor may be positioned on the rigid member and configured to measure the first deformation independent of hysteresis and non-linearity in the elastic element.
    • 示例性实施例可以涉及在致动和非致动系统中使用的柔性力传感器。 例如,结构(例如,变速器)可以被配置为基于对结构的负载的应用来接收力。 刚性构件可以联接到结构并且构造成基于将负载施加到结构并将力传递到刚性构件来提供第一变形。 弹性元件可以提供顺应性并且可以连接到刚性构件,使得刚性构件被构造成进一步将力传递到弹性元件。 弹性构件可以构造成在施加大于第一变形的载荷的情况下提供第二变形。 传感器可以定位在刚性构件上并且被配置成测量与弹性元件中的滞后和非线性无关的第一变形。