Prof. LOU Yunjiang 樓雲江教授 Professor and Dean of the College of Artificial Intelligence, Harbin Institute of Technology, Shenzhen 哈爾濱工業大學(深圳)人工智慧學院院長及教授 |
Biography 簡歷
Yunjiang Lou, Professor and Dean of the College of Artificial Intelligence, Harbin Institute of Technology, Shenzhen. Prof. Lou has been engaged in research on robotic manipulation and grasping, motion planning and control, Control of UAV. He has led 30+ research projects such as the National Key R&D Program and the National Natural Science Foundation of China. He has published more than 160 academic papers and has been granted more than 40 China patents and 2 US/EU patents. He was presented the first prize of Guangdong Science and Technology Progress Award in 2023 and the first prize of Shenzhen Science and Technology Progress Award in 2019. Professor Lou is a senior member of IEEE and the chairman of the System Simulation Technology Committee of the Chinese Association of Automation. He was an Associate Editor of IEEE Trans. on Robotics (2014-2017) and IEEE Robotics and Automation Letters (2018-2023).
樓教授專注於機器人操作與抓取、運動規劃與控制、無人機控制等研究。他主導了30多個研究項目,包括國家重點研發計畫和國家自然科學基金。樓教授已發表超過160篇學術論文,並獲得40多項中國專利以及2項美國/歐盟專利。他於2023年獲得廣東省科技進步獎一等獎,並於2019年獲得深圳市科技進步獎一等獎。樓教授是IEEE的資深會員,並擔任中國自動化學會系統仿真技術委員會主席。他曾擔任IEEE Trans. on Robotics (2014-2017)和IEEE Robotics and Automation Letters(2018-2023)的副編輯。
Topic 題目 | Reinforcement Learning Based Agile Flight Control of Quadrotor Drones 基於強化學習的四旋翼無人機敏捷飛行控 |
Abstract 撮要 | Quadrotors, with their advantages such as rapid vertical takeoff and landing, wide operational range, low operating costs, high flight accuracy, and strong agility and flexibility, have been widely applied in industries, agriculture, and other fields. Nevertheless, as the application fields expand and the complexity of application scenarios increases, higher requirements and new challenges are required for the autonomous flight control capabilities of quadrotors. These include the agility and accuracy required for autonomous traversal in narrow areas, the adaptive ability to handle model uncertainties and external environmental disturbances, and the real-time response capability for autonomous planning and decision-making. This report will focus on small quadrotors, centering around the underlying control of drones, stable hovering, trajectory tracking, traversal flight in narrow areas, and safe flight under rotorcraft malfunctions. It will particularly introduce the self-learning motion control technology based on reinforcement learning for rotorcraft drones, aiming to develop a relatively comprehensive set of self-learning control methods for rotorcraft drones. |