项目针对目前小型爬壁机器人爬行速率低、回收困难等问题，以飞蜥、飞鼠等自然界四足爬壁滑翔动物为原型,开展柔性仿生爬壁滑翔机器人研究，探索兼具四足动步态攀爬和肢控翼膜滑翔的多模式运动实现方法：（1）以结构参数-摆动步态的谐振控制作为攀爬运动的设计目标，结合足端微刺附着方式，以减小爬壁机器人的能耗；（2）参考四足滑翔生物运动过程和姿态调整策略，采用波动滑行步态克服失稳，实现定向滑翔控制；（3）采用背向滑翔形式实现由攀爬到滑翔的运动模式转换。该项目将研究小型爬壁滑翔机器人柔性机构的一体化设计方法，构造适应复合功能的多自由腿和基于柔性张紧机构的翼膜，建立机器人爬壁、滑翔的运动控制模型。本项目具有多学科交叉融合的特点，是小型爬壁机器人研究的拓展和延伸，研究成果有望获得一类具有多运动模式的高效爬壁滑翔机器人。

To improve the climbing speed and working efficiency of the climbing robot, this project will research and develop a bionic climbing and gliding robot based on the research results of the bionics and aero dynamics. The research work will include developing a compliant mechnism to combine the climbing and gliding functions into one robotic platform, building up multi degree of freedoms legs based on compliant joints and spinule foot, designing a leg and membrane wing compound mechanism, and researching a bionic dynamic climbing gait and rapid directional gliding control method. The results of this project will include a kind of meso scale climbing robot being able to dynamically climb on natural walls as well as freely glide down. A rapid dynamic bionic climbing gait will be ensured by a comprehensive design method, which optimizes the driver, structure and gait to realize a resonance gait. A controllable gliding will be yielded by a multi functional leg and membrane wing driving mechanism. This project will feature in the fusion of multi disciplines, including bionics, complinant mechanism, aero dynamics and climbing robot. That endowes this project with a novel research methodology.