A Virtual Simulator for the Embedded Control System Design for Navigation of Mobile Robots Applied in Wheelchairs

L. F. Melo, S. G. S. Cervantes, J. M. Rosário
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Abstract

This chapter presents a virtual environment implementation for embedded design, simulation, and conception of supervision and control systems for mobile robots, which are capable of operating and adapting to different environments and conditions. The purpose of this virtual system is to facilitate the development of embedded architecture systems, emphasizing the implementation of tools that allow the simulation of the kinematic, dynamic, and control conditions, in real time monitoring of all important system points. To achieve this, an open control architecture is proposed, integrating the two main techniques of robotic control implementation at the hardware level: systems microprocessors and reconfigurable hardware devices. The utilization of a hierarchic and open architecture, distributing the diverse actions of control in increasing levels of complexity and the use of resources of reconfigurable computation are made in a virtual simulator for mobile robots. The validation of this environment is made in a nonholonomic mobile robot and in a wheelchair; both of them used an embedded control rapid prototyping technique for the best navigation strategy implementation. After being tested and validated in the simulator, the control system is programmed in the control board memory of the mobile robot or wheelchair. Thus, the use of time and material is optimized, first validating the entire model virtually and then operating the physical implementation of the navigation system.
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轮椅移动机器人导航嵌入式控制系统设计的虚拟模拟器
本章提出了一种用于嵌入式设计、仿真和移动机器人监控系统概念的虚拟环境实现,该系统能够运行并适应不同的环境和条件。该虚拟系统的目的是促进嵌入式体系结构系统的开发,强调实现允许模拟运动,动态和控制条件的工具,实时监控所有重要的系统点。为了实现这一目标,提出了一种开放的控制体系结构,在硬件层面集成了机器人控制实现的两种主要技术:系统微处理器和可重构硬件设备。在移动机器人的虚拟仿真器中,利用分层开放的体系结构,将不同的控制动作分布到不同的复杂程度,并利用可重构计算资源。在非完整移动机器人和轮椅上对该环境进行验证;它们都使用嵌入式控制快速原型技术来实现最佳导航策略。在模拟器上进行测试验证后,将控制系统编程到移动机器人或轮椅的控制板存储器中。因此,时间和材料的使用得到了优化,首先虚拟验证整个模型,然后操作导航系统的物理实现。
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Journal of Rapid Methods and Automation in Microbiology
Journal of Rapid Methods and Automation in Microbiology 生物-生物工程与应用微生物
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