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Fuzzy Logic Controller to control the position of a mobile robot that follows a track on the floor

机译:模糊逻辑控制器,用于控制跟随地面上轨道的移动机器人的位置

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In this paper presents satisfactory preliminary results to use a simple mathematical analysis is proposed to convert the fuzzy range into a real actual range of velocity. The robot main controller is a single microcontroller that controls all the functionality of the robot. A fuzzy logical framework is used to control the angular momentum of left and right wheels. The fuzzy rules works on one variable that is LED position through the use of 6 sensors placed on the front of the robot to give the greatest amount of flexibility when turning and avoiding obstacles. The rules are based on connection the fuzzy variables with the operator “and”. As a conclusion, one photoelectric switch get activated lets the wheel of the opposite side get raised in the speed. The raise of speed depends on the location of the photoelectric switch; an edge located photoelectric switch causes a maximum raise of speed on the opposite wheel. This study objectives to present and analyze what is known as control system engineering through the implementation of fuzzy logic, down to achieving the following points like, introduce a problem that requires the implementation a fuzzy logic controller, demonstrate theoretically the behavior plus response under fuzzy logic control and prove the efficiency of fuzzy logic controller. The results in this study showed a high positive and that the proposed solution is able to drive the robot inside curved paths with high efficiency, maneuver freely at different speeds and avoid obstacles without any collision.
机译:本文提出了令人满意的初步结果,使用简单的数学分析方法将模糊范围转换为实际的实际速度范围。机器人主控制器是单个微控制器,可控制机器人的所有功能。模糊逻辑框架用于控制左右车轮的角动量。模糊规则通过使用机器人前部的6个传感器对一个变量(即LED位置)起作用,从而在转向和避开障碍物时提供最大的灵活性。规则基于模糊变量与运算符“ and”的连接。结论是,一个光电开关被激活,使相对侧的车轮速度升高。速度的提高取决于光电开关的位置。位于边缘的光电开关可最大程度地提高对向轮的速度。本研究的目的是通过实现模糊逻辑来介绍和分析所谓的控制系统工程,直至达到以下几点,介绍需要实现模糊逻辑控制器的问题,从理论上说明模糊逻辑下的行为和响应。控制并证明了模糊逻辑控制器的有效性。这项研究的结果显示出很高的积极性,所提出的解决方案能够高效地在弯曲路径内驱动机器人,以不同的速度自由操纵,并避免障碍物而不会发生任何碰撞。

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