基于弹簧加载倒立摆模型的肌肉骨骼双足机器人设计与连续跳跃实验

Yiqi Li, Yelin Jiang, Koh Hosoda
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引用次数: 0

摘要

为了控制机器人的运动,一种成功的方法是将机器人动力学近似为简化模型。然而,机器人的实际机械性能与简化模型之间的差异会导致机器人运动失灵。为了解决这个问题,本文提出了一种气动驱动双足肌肉骨骼机器人,它与简化的弹簧加载倒立摆(SLIP)模型的机械特性相匹配。SLIP 模型具有与人类步态相似的被动稳定性和动态特性,因此被广泛应用于机器人。根据 SLIP 模型的特性,我们设计了一种肌肉骨骼双足机器人,其质心集中在髋关节附近的小身体上,腿部惯性小。此外,我们还通过连续跳跃实验验证了该机器人表现出与 SLIP 模型相似的特性。
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Spring Loaded Inverted Pendulum Model Based Musculoskeletal Biped Robot Design and Sequential Jumping Experiment
In order to control the motion of a robot, a successful approach is to approximate the robot dynamics as a simplified model. However, the discrepancies between the actual mechanical properties of the robot and the simplified model will result in motion failure for the robot. To address this issue, this paper proposes a pneumatic-driven bipedal musculoskeletal robot that match the mechanistic properties of a simplified spring-loaded inverted pendulum (SLIP) model. The SLIP model is widely applied to robots because it exhibits passive stability and dynamic properties that are similar to human gaits. We designed a musculoskeletal biped robot with its center of mass concentrated in the small body near the hip joint, with low leg inertia based on the properties of the SLIP model. In addition, it it has been verified that the robot exhibits similar characteristics to the SLIP model through a sequential jumping experiment.
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