四足机器人的安全运动规划与编队控制

Zongrui Ji, Yi Dong
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引用次数: 0

摘要

介绍了一种四足机器人和多智能体系统的运动规划和协同编队控制方法。首先,为了提高四足机器人在复杂环境中导航的效率和安全性,本文提出了一种将四足机器人动力学模型与无欧几里得符号距离场的梯度优化避障策略相结合的规划方法。该框架既适用于静态障碍环境,也适用于慢速动态障碍环境,旨在实现避障、最小化能耗、减小冲击、满足动态约束和保证轨迹平滑的多重目标。这种方法的不同之处在于,它从一个新的角度减少了整个运动的能耗。同时,该方法有效地减少了地面对机器人的冲击,从而减轻了对机器人结构的破坏。其次,将动态控制障碍函数与虚拟leader-follower模型相结合,通过模型预测控制实现高效安全的编队控制。最后,通过仿真和实际场景测试对算法进行了验证。
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Safe motion planning and formation control of quadruped robots

This paper introduces a motion planning and cooperative formation control approach for quadruped robots and multi-agent systems. First, in order to improve the efficiency and safety of quadruped robots navigating in complex environments, this paper proposes a new planning method that combines the dynamic model of quadruped robots and a gradient-optimized obstacle avoidance strategy without Euclidean Signed Distance Field. The framework is suitable for both static and slow dynamic obstacle environments, aiming to achieve multiple goals of obstacle avoidance, minimizing energy consumption, reducing impact, satisfying dynamic constraints, and ensuring trajectory smoothness. This approach differs in that it reduces energy consumption throughout the movement from a new perspective. Meanwhile, this method effectively reduces the impact of the ground on the robot, thus mitigating the damage to its structure. Second, we combine the dynamic control barrier function and the virtual leader-follower model to achieve efficient and safe formation control through model predictive control. Finally, the proposed algorithm is validated through both simulations and real-world scenarios testing.

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