Fuzzy Models for a Two-Wheeled Self-Balancing Robot

Flavius-Catalin Paulescu, R. Precup
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Abstract

A self-balancing robot is a robot that is primarily capable to maintain a stable tilt angle. These kinds of robots have the advantages of having small size, footprint, being easy to carry and practical. The system is mainly unstable by nature, which need control strategies to maintain is equilibrium. The main goal of this paper is the development of fuzzy models for a two-wheeled self-balancing robot, previously built and tested experimentally. The fuzzy model input is the control signal applied to the stepper motor, i.e., the number of steps, and the fuzzy model output is the tilt angle, namely the robot angle with respect to the vertical equilibrium point. An incremental online algorithm is applied in order to obtain evolving fuzzy models. The system usually uses a microcontroller, an accelerometer, and a gyroscope module to obtain the tilt angle, and stepper motors play the role of actuators. The developed fuzzy models are validated against experimental input-output data measured from the real robot.
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两轮自平衡机器人的模糊模型
自平衡机器人是一种主要能够保持稳定倾斜角度的机器人。这类机器人具有体积小、占地面积小、携带方便、实用等优点。系统本质上主要是不稳定的,需要控制策略来维持其平衡。本文的主要目标是建立两轮自平衡机器人的模糊模型,该模型已经建立并进行了实验测试。模糊模型输入为作用于步进电机的控制信号,即步数,模糊模型输出为倾斜角,即机器人相对于垂直平衡点的角度。为了得到演化模糊模型,采用了一种增量在线算法。该系统通常使用微控制器、加速度计和陀螺仪模块来获取倾斜角度,步进电机起到执行器的作用。根据实际机器人的实验输入输出数据对所建立的模糊模型进行了验证。
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