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On distributed mechatronics controller for omni-directional autonomous guided vehicles

机译:用于全向自主导引车的分布式机电一体化控制器

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Purpose - In this paper, two omni-directional mobile vehicles are designed and controlled implementing distributed mechatronics controllers. Omni-directionality is the ability of mobile vehicle to move instantaneously in any direction. It is achieved by implementing Mecanum wheels in one vehicle and conventional wheels in another vehicle. The control requirements for omni-directionality using the two above-mentioned methods are that each wheel must be independently driven, and that all the four wheels must be synchronized in order to achieve the desired motion of each vehicle. Design/methodology/approach - Distributed mechatronics controllers implementing Controller Area Network (CAN) modules are used to satisfy the control requirements of the vehicles. In distributed control architectures, failures in other parts of the control system can be compensated by other parts of the system. Three-layered control architecture is implemented for; time-critical tasks, event-based tasks, and task planning. Global variables and broadcast communication is used on CAN bus. Messages are accepted in individual distributed controller modules by subscription. Findings - Increase in the number of distributed modules increases the number of CAN bus messages required to achieve smooth working of the vehicles. This requires development of higher layer to manage the messages on the CAN bus. Research limitations/implications - The limitation of the research is that analysis of the distributed controllers that were developed is complex, and that there are no universally accepted tool for conducting the analysis. The other limitation is that the mathematical models of the mobile robot that have been developed need to be verified. Practical implications - In the design of omni-directional vehicles, reliability of the vehicle can be improved by modular design of mechanical system and electronic system of the wheel modules and the sensor modules. Originality/value - The paper tries to show the advantages of distributed controller for omni-directional vehicles. To the author's knowledge, that is a new concept.
机译:目的-在本文中,设计并控制了两台全向移动车辆,它们采用了分布式机电一体化控制器。全向性是移动车辆在任何方向上即时移动的能力。这是通过在一辆车上安装Mecanum车轮,在另一辆车上使用常规车轮来实现的。使用上述两种方法进行全向控制的要求是,每个车轮必须独立驱动,并且必须同步所有四个车轮,以实现每个车辆的期望运动。设计/方法/方法-实施控制器局域网(CAN)模块的分布式机电一体化控制器用于满足车辆的控制要求。在分布式控制体系结构中,控制系统其他部分的故障可以通过系统的其他部分进行补偿。实现了三层控制架构;时间紧迫的任务,基于事件的任务和任务计划。全局变量和广播通信用于CAN总线。通过订阅在各个分布式控制器模块中接受消息。发现-分布式模块数量的增加增加了实现车辆平稳运行所需的CAN总线消息的数量。这需要开发更高的层来管理CAN总线上的消息。研究的局限性/意义-研究的局限性在于对已开发的分布式控制器的分析很复杂,并且没有进行分析的通用工具。另一个限制是,需要验证已开发的移动机器人的数学模型。实际意义-在全向车辆的设计中,可以通过车轮模块和传感器模块的机械系统和电子系统的模块化设计来提高车辆的可靠性。原创性/价值-本文试图展示用于全向车辆的分布式控制器的优势。据作者所知,这是一个新概念。

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