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2026.08.01

BIRD Lab opens applications for PhD & postdoctoral positionsBIRD Lab 开放博士/博士后申请

We welcome outstanding scholars with backgrounds in mechanics, electronics, control or artificial intelligence to join us in advancing bioinspired intelligent robotics. We value self-driven, cooperative candidates with a strong curiosity for interdisciplinary knowledge, and we especially welcome those aiming for long-term development in academia or industry. Please send your CV and supporting materials to yuetq@sustech.edu.cn, with the email subject marked "Name + Position (Master/PhD/Postdoc/Visiting Student/Undergraduate)".欢迎具有机械、电子、控制或人工智能背景的优秀学者加入我们,共同推动仿生智能机器人技术的发展。我们欣赏人品端正、自驱力强、乐于协作、对跨学科知识充满好奇的候选人,尤其欢迎在学术界/产业界有长期发展意愿的朋友。请将个人简历及相关证明材料发送至 yuetq@sustech.edu.cn,邮件标题注明"姓名+申请岗位(硕士生/博士生/博士后/访问学生/本科生)"。

Apply Now →立即申请 → # Recruitment招生招聘
2026.07.24

The group visited Shenzhen X-Innovation Institute课题组参观深圳科创学院

The group visited the Shenzhen X-Innovation Institute and exchanged ideas with two startup companies. This visit brought students closer to the industrial frontier of robotics, and everyone deeply felt that good research cannot be done behind closed doors — it should both root in principle exploration and actively face real-world needs.课题组参观了深圳科创学院,与两家创业公司进行了交流。这次走访让同学们近距离接触了机器人领域的产业前沿,大家深刻体会到——好的科研不能闭门造车,既要扎根原理探索,也要主动面向真实需求。

# Exchange Visit交流访问
2026.07.24
2026.04.07

The group delivered an invited talk at IEEE RoboSoft 2026课题组在 IEEE RoboSoft 2026 作邀请报告

Invited by Assistant Professor Quan Xiong of the University of Macau, the group delivered an invited talk titled "Water-Related Suction: Grasping, Sliding and Sensing" at the IEEE RoboSoft 2026 conference held in Kanazawa, Japan, sharing the lab's latest progress in bio-inspired adhesion research with international peers.受澳门大学熊泉助理教授邀请,课题组在日本金泽举办的 IEEE RoboSoft 2026 国际会议上做了题为"Water-Related Suction: Grasping, Sliding and Sensing"的邀请报告,与国际同行分享了实验室在仿生吸附领域的最新进展。

# Academic Talk学术报告
2026.04.07
2026.02.02

Pre-Spring Festival gathering年前小聚

On the eve of the Spring Festival, the lab members gathered for a hearty barbecue. No matter how busy research gets, it is important to treat ourselves well — eat well, drink well, and be ready for the new year!春节前夕,实验室的小伙伴们聚在一起吃了顿热热闹闹的烧烤。科研再忙,也要好好犒劳一下自己——吃饱喝足,来年再战!

# Team Activity团队活动
2026.02.02
2026.01.10

The group visited the XPENG Robotics R&D Center课题组参观小鹏机器人研发中心

The group visited the XPENG Robotics R&D Center, observed the new-generation IRON robot up close, and had in-depth exchanges with senior technical experts in the industry. From laboratory to production line, from theoretical derivation to engineering implementation — the students not only broadened their technical horizons but also truly felt how hardware innovation drives the development of robotics, and benefited a lot.课题组前往小鹏机器人研发中心实地参观,近距离观摩了新一代 IRON 机器人,并与产业界的资深技术专家进行了深入交流。从实验室到生产线,从理论推导到工程落地——同学们不仅拓宽了技术视野,也更真切地感受到了硬件创新对机器人技术发展的牵引力,受益匪浅。

# Exchange Visit交流访问
2026.01.10
2025.05.14

BIRD Lab publishes octopus-inspired soft robot research in Science RoboticsBIRD Lab 在 Science Robotics 发表仿生章鱼软体机器人新成果

The team developed an embodied-intelligence soft robot integrating grasping, perception, decision-making and actuation — providing new ideas for low-cost integration and compliant interaction in soft robotics. This work demonstrates how physical intelligence can be embedded in soft robotic systems through bio-inspired hierarchical suction, opening new possibilities for underwater and industrial applications.研究团队开发出将抓取、感知、决策与驱动融于一体的具身智能软体机器人,为软体机器人的低成本集成与柔顺交互提供了全新思路。该工作展示了如何通过仿生层级吸盘将物理智能嵌入软体机器人系统,为水下与工业应用开辟了新的可能。

View Publications →查看论文 → # Soft Robotics软体机器人
2024.05.13

Snail-inspired water-enhanced sliding suction published in Nature Communications受蜗牛启发的含水滑动吸附成果发表于 Nature Communications

A wall-climbing robot based on water-enhanced soft sliding suction achieves superior load-to-energy efficiency, paving the way for high-performance climbing systems. The snail-inspired approach combines soft sliding contact with regulated water secretion to deliver reliable adhesion on diverse surfaces.基于含水软体滑动吸附的爬壁机器人实现了高负载-能耗比,为高性能爬壁系统开辟了新路径。该受蜗牛启发的方法将软体滑动接触与受调控的水分泌相结合,在多种表面上实现稳定吸附。

View Publications →查看论文 → # Wall Climbing爬壁机器人
2024.04.16

BIRD Lab publishes bio-inspired multiscale adaptive suction research in PNASBIRD Lab 在 PNAS 发表仿生多尺度自适应吸附新成果

Inspired by octopus suckers, the team achieved a highly adaptive robotic vacuum suction system for end effectors, providing a solution for robot grasping on rugged, rough, dry and complex surfaces.受章鱼吸盘启发,实现了高度适应性的机器人末端真空吸附系统,为在崎岖不平、粗糙、干燥复杂表面的机器人抓取提供了解决方案。

View Publications →查看论文 → # Vacuum Suction真空吸附
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