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首页> 外文期刊>IEEE Robotics and Automation Letters >Dynamics and Control of a Collaborative and Separating Descent of Samara Autorotating Wings
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Dynamics and Control of a Collaborative and Separating Descent of Samara Autorotating Wings

机译:翼果自动旋转机翼协同分离后裔的动力学和控制

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摘要

To deliver lightweight sensor payloads to disaster-struck areas by means of an aerial deployment, a novel bio-inspired method capitalizing on autorotation to slow down vertical descent rate is proposed. This concept is illustrated using the samara autorotating wing (SAW) platform, which features a unique collaborative mode where multiple individual units are attached mechanically together to form a collective rotor hub for increased controllability. This rotor is designed with a simple de-centralized separation mechanism to detach into singular units during flight upon command, catering to different mission profiles. The dynamic models for singular state and collaborative rotor hub state were developed, and free-flight simulations were conducted in different modes including the separation stage and control performance for both states was analyzed. Experiments were set up for increased motion-capture region and free-flight drop tests and separation flights were carried out to verify the simulations. Finally, using a multi-rotor as an aerial launch platform, control performance for the single-winged state was evaluated in real-world conditions.
机译:为了通过空中部署将轻巧的传感器有效载荷传递到受灾地区,提出了一种利用自动旋转来减慢垂直下降速度的新型生物启发方法。使用翼果自动旋转翼(SAW)平台对此概念进行了说明,该平台具有独特的协作模式,其中多个单独的单元通过机械方式连接在一起,以形成一个集体的转子轮毂,从而提高了可控性。该旋翼设计有简单的分散式分离机构,可根据指令飞行过程中分离成单个单元,以适应不同的任务情况。开发了奇异状态和协同转子毂状态的动力学模型,并以包括分离阶段和两种状态的控制性能在内的不同模式进行了自由飞行仿真。建立了用于增加运动捕捉区域的实验,并进行了自由飞行降落测试,并进行了分离飞行以验证模拟结果。最后,使用多旋翼作为空中发射平台,在实际条件下评估了单翼状态的控制性能。

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