Fuzzy adaptive variable impedance control on deformable shield of defecation smart care robot

Lingling Chen , Pengyue Lai , Yanglong Wang , Yuxin Dong
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Abstract

Precise control of the contact force is crucial in the application of non-wearable defecation smart care (DSC) robot. A deformable shield equipped with a pressure sensing function is designed, with a bending angle that can be adjusted according to pressure feedback, thus enabling it to adapt to various body shapes. To improve the force tracking accuracy and prevent obvious force overshoot in the initial contact stage, a contact force control strategy based on fuzzy adaptive variable impedance is proposed. The proposed contact force control strategy achieves an average root-mean-square error of 0.024 and an average overshoot of 1.74%. Experimental results demonstrate that the designed deformable shield can fit the human body well, while the proposed control strategy enhances the contact force management and realizes the precise control of human–robot contact force.
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排便智能护理机器人变形护罩模糊自适应变阻抗控制
接触力的精确控制是非穿戴式排便智能护理(DSC)机器人应用的关键。设计了一种具有压力传感功能的可变形护罩,其弯曲角度可根据压力反馈进行调整,从而适应各种体型。为了提高力跟踪精度,防止接触初始阶段出现明显的力超调,提出了一种基于模糊自适应变阻抗的接触力控制策略。所提出的接触力控制策略平均均方根误差为0.024,平均超调量为1.74%。实验结果表明,所设计的可变形防护罩能够很好地贴合人体,所提出的控制策略增强了接触力的管理,实现了人机接触力的精确控制。
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