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姬科举

发布时间:2025-02-25浏览次数:15491作者:来源:极品av 供图:审核:


姓名:姬科举

性别:男

职务:

职称:副研究员

博导/硕导:硕导

办公室:12-512

研究领域仿生微纳制造;仿生表界面材料及其产业化;仿生爬壁机器人关键技术

电话:025-84892581

Email[email protected]

个人简介:

姬科举,博士,副研究员,仿生材料与装备江苏省高校重点实验室副主任,中国机械工程学会摩擦学分会委员、生物制造工程分会委员、国际仿生工程学会青年工作委员会委员。

主要从事仿生微纳制造、仿生黏附材料、装备及其产业化、仿生爬壁关键技术研究,创办仿生表界面产业化品牌—艾德恒信®研制的仿生黏附垫、仿生摩擦垫、壁虎胶带等仿生表界面产品成果在我国梦天实验舱、神舟系列载人航天任务中获得应用,并已批量应用于光电、半导体、自动化等领域主流企业、大厂,解决了真空、高低温、振动等环境下的界面操控技术难题。

已发表Adv. Funct. MaterAdv. SciSmall等一作/通讯高水平论文40余篇;已授权专利35项,其中授权发明专利20余项,美国发明专利2。担任《摩擦学学报(中英文)》青年编委,主持承担国家自然科学基金、军科委前沿创新计划、科工局基础研究计划、空间站工程航天医学实验领域项目等多项科研任务。牵头制定仿生黏附材料领域国家标准,荣获上海市技术发明奖一等奖(排名第3)、江苏省机械工程学会科学技术奖优秀青年人才奖等奖励。


工作经历:

2016.04—现在     副研究员    极品av


教育背景:                                                     

2008.09—2016.01     博 士      极品av

2004.09—2008.06     学 士      极品av


学术成果:

主要代表作如下:

[1]Jian Chen, Wenjie Chen, Mengmeng Zhao, Xingyu Jiang, Xiaolei Zhu, Xinran Xu, Jiahui Zhao, Yezhong Tang, Stanislav N Gorb, Keju Ji*, Zhendong Dai*. Ultrafast Adhesion/Friction Bidirectionally Switchable Control by Vibration. Advanced Functional Materials, 2025, e16421. (1top期刊, IF: 19)

[2]Jian Chen, Wenjun Tan, Wenjie Chen, Jiahui Zhao, Yezhong Tang, Stanislav N. Gorb, Keju Ji*, Zhendong Dai*. Bio-inspired structural adhesion and friction for harsh-environments: From natural ingenuity to engineering. Friction, 2025, //doi.org/10.26599/FRICT.2025.9441123. (1top期刊, IF: 8.2)

[3]Conghui Li, Jiahui Zhao, Jian Chen, Jun Sun, Zhiyong Hu, Yuanming Ji, Qianqian Li, Haozhen Zhan, Kai Deng, Jianming Wu, Zhendong Dai, Keju Ji*. Effect of Thermal Reflow on Microstructural Morphology and Contact Mechanics in the Photo‐Lithographic Fabrication of Biomimetic Adhesive Materials, Small Methods, 2025, 2402123. (Q1, IF: 9.1)

[4]Yuanming Ji, Zhili Li, Peng Zou, Chengyang Li, Xipeng Wang, Xiyue Yang, Zhendong Dai and Keju Ji. Anti-Weightlessness Physiological Protection for the Lower Limb Muscle System Based on Biomimetic Adhesive Force Stimulation. Biomimetics, 2025, 10(12): 800.

[5]Jiachun Zhang, Tingwei Huo, Yuanming Ji, Haozhen Zhan, Shixun Fu, Jianming Wu, Xipeng Wang, Keju Ji*. Biomimetic Manipulation of Smooth Solid Surfaces for Vacuum High-Temperature and Vibration Environments. Journal of Bionic Engineering, 2025, 22: 755-766.

[6]Shixun Fu, Jun Sun, Zhiyong Hu, Yongjin Zhao, Tianchang Yao, Xipeng Wang, Yuanming Ji, Kai Deng, Keju Ji*. Multi-mechanism collaborative bionic fixation technique between a wide range of solid interfaces. Advanced Science, 2024, 2409507. (一区top期刊,IF: 14.1)

[7]Haozhen Zhan, Jianming Wu, Jiachun Zhang, Qianqian Li, Shixun Fu, Jian Chen, Jiahui Zhao, Yuanming Ji, Xipeng Wang, Kai Deng, Keju Ji*. Biomimetic microstructure with anti-slip and anti-adhesion for efficient handling of brittle material surfaces in high-temperature environments. Small, 2024, 2408236. (一区top期刊,IF: 12.1)

[8]Qianqian Li, Keju Ji*, Jiahui Zhao, Peng Zou, Xipeng Wang, Jian Chen, Conghui Li, Zhili Li, Kai Deng, Yuanming Ji, Yinghui Li, Zhendong Dai*. Manufacturing of Bionic Adhesion Microstructure with Expanded Ends Based on Electroplating in the Restricted Area. ACS Applied Materials & Interfaces, 2024, 16(37): 49985-49992. (Q1, IF: 8.2)

[9]姬科举, 李志利, 李英泽, 姬原鸣, 邹朋, 周瑞, 曲丽娜, 王春艳, 米涛, 袁敏, 王林杰, 李莹辉, 戴振东, 用于航天员下肢骨肌锻炼的仿生黏附鞋及在轨验证, 中国科学: 技术科学, 2024, 54(12): 2337-2346.

[10]Yingze Li, Keju Ji*, Zhili Li, Jiahui Zhao, Yuanming Ji, Peng Zou, Xipeng Wang, Linjie Wang, Min Yuan, Lina Qu, Yinghui Li, Zhendong Dai. Bio-inspired Adhesion Device for Fixation and Walking in Microgravity Environment. Space: Science & Technology, 2025, 5: 0196 (一区top期刊,IF:6.8)

[11]Jianming Wu, Keju Ji*, Shaobao Liu, Tingwei Huo, Xipeng Wang, Chongwen Tu, Jiahui Zhao, Kai Deng, Zhendong Dai, Stanislav N. Gorb. Bio-inspired anti-slip and anti-adhesion surface with hemispherical microstructures for wafer handling. Tribology International, 2024, 191: 109178. (1top期刊, IF: 6.9)

[12]Xipeng Wang, Keju Ji*, Shixun Fu, Chongwen Tu, Jianming Wu, Tingwei Huo, Jiahui Zhao, Yuanming Ji, Kai Deng, Haoran Tan, Zhendong Dai. Influence of vibrations and shocks on the stability of biomimetic attachments. Colloids and Surfaces A: Physicochemical and Engineering Aspects. 2024, 682: 132946. (Q1, IF: 5.4)

[13]Jian Chen, Keju Ji, Chi Xu, Jiahui Zhao, Tingwei Huo, Yi Song, Stanislav N. Gorb, Yi Long, Zhendong Dai. Robust and reversible adhesion under extreme thermal conditions, Device, 2024, 2(1): 100180.

[14]Chongwen Tu, Keju Ji*, Jiahui Zhao, Xipeng Wang, Jianming Wu, Tingwei Huo, Yuanming Ji, Jian Chen, Kai Deng, and Zhendong Dai. Preload-Induced Switchable Adhesion. Small, 2023, 20: 2305091.1top期刊,IF: 12.1

[15]Jiahui Zhao, Keju Ji*, Chongwen Tu, Kai Deng, Liuwei Wang, Jian Chen, Jianming Wu, Junjie Zhu, Hemin Bai, Zhendong Dai. Insect-inspired design strategy for flexible attachments with strong frictional force and weak pull-off force. Tribology International, 2023, 189: 108973.1top期刊, IF: 6.9

[16]Qian Zhang, Keju Ji*, Tingwei Huo, Muhammad Niaz Khan, Zhuoyang Hu, Cong Yuan, Jiahui Zhao, Jian Chen, Zhouyi Wang, Zhendong Dai. Biomimetic Patch with Wicking-breathable and Multi-mechanism Adhesion for Bioelectrical Signal Monitoring. ACS Applied Materials & Interfaces, 2022, 14: 48438−48448. (Q1, IF: 8.2) 

[17]Jiahui Zhao, Keju Ji*, Qin Chen, Muhammad Niaz Khan, Chongwen Tu, Ze Ma, Jianming Wu, Jian Chen, Zhendong Dai. Resistance reduction of patterned surface inspired by cuticle structure of Achalinus spinalis. Friction, 2023, 11, 1359–1370. (1top期刊, IF: 8.2)

[18]Cong Yuan, Keju Ji*, Qian Zhang, Peng Yuan, Yilin Xu, Jing Liu, Tingwei Huo, Jiahui Zhao, Jian Chen, Yi Song, Yi Long, Zhendong Dai. Bionic design and performance of electrode for bioelectrical signal monitoring. Advanced materials interfaces, 2022, 9: 2200532.Q1, 封底论文,IF4.4

[19]Muhammad Niaz Khan, Tingwei Huo, Qian Zhang, Zhuoyang Hu, Jiahui Zhao, Jian Chen, Zhouyi Wang, Keju Ji*. Synergetic adhesion in highly adaptable bio-inspired adhesive. Colloids and Surfaces B: Biointerfaces, 2022, 212:112335. 1top期刊, IF: 5.6

[20]Cong Yuan, Keju Ji*, Yiqiang Tang, Zizhuo Wang, Enhua Cui, Jian Chen, Zhendong Dai. Effective metal mold method for the production of bionic adhesives based on electrochemical modifications. Chinese Journal of Aeronautics, 2021, 34(4):332-340. (1top期刊, IF: 5.7)

[21]Mingcai Wen, Yiqiang Tang, Cong Yuan, Enhua Cui, Keju Ji*, Zhendong Dai. Effect of interconnected metal skeletons on the tribological properties of polyurethane elastomers. Journal of Engineering Tribology, 2020, 234(10), 1635–1641.

[22]Keju Ji*, Guiyun Meng, Cong Yuan, Enhua Cui, Yang Li, Jun Sun, Zhendong Dai. Synergistic effect of Fe and Al2O3 layers on the growth of vertically aligned carbon nanotubes for gecko-inspired adhesive applications. Journal of Manufacturing Processes, 2018, 33:238-244. 1top期刊, IF: 6.8

[23]Yang Li, Keju Ji*, Yali Duan, Guiyun Meng, Zhendong Dai. Effect of Hydrogen Concentration on the Growth of Carbon Nanotube Arrays for Gecko-Inspired Adhesive Applications. Coatings, 2017, 7(12):221.

[24]Keju Ji, Jun Zhang, Jia Chen, Guiyun Meng, Yanfei Ding, Zhendong Dai. Centrifugation-assisted fog-collecting abilities of metal-foam structures with different surface wettabilities. ACS Applied Materials & Interfaces, 2016, 8:10005-10013. (Q1, IF: 8.2)

[25]Keju Ji, Jing Liu, Jun Zhang, Jia Chen, Zhendong Dai. Super-floatable multidimensional porous metal foam integrated with a bionic superhydrophobic surface. Journal of Materials Chemistry A, 2014, 2:16589-16593. (1top期刊, IF: 9.5)

[26]Keju Ji, Chen Xu, Huihui Zhao, Zhendong Dai. Electrodeposited lead-foam grids on copper-foam substrates as positive current collectors for lead-acid batteries. Journal of Power Sources, 2014, 248:307-316. (1top期刊, IF: 7.9) 

[27]Keju Ji, Yinsong Xu, Jun Zhang, Jia Chen, Zhendong Dai. Foamed-metal-reinforced composites: Tribological behavior of foamed copper filled with epoxy–matrix polymer. Materials & Design, 2014, 61:109-116.

[28]Keju Ji, Huihui Zhao, Jun Zhang, Jia Chen, Zhendong Dai. Fabrication and electromagnetic interference shielding performance of open-cell foam of a Cu–Ni alloy integrated with CNTs. Applied Surface Science, 2014, 311:351-356. (1top期刊, IF: 6.9, 他引253次)

[29]Keju Ji, Huihui Zhao, Zhenggen Huang, Zhendong Dai. Performance of open-cell foam of Cu–Ni alloy integrated with graphene as a shield against electromagnetic interference. Materials Letters, 2014, 122:244-247.  

[30]Keju Ji, YQ Xia, Dai ZD. Different foamed metal–reinforced composites: Tribological behavior and temperature field simulation. Tribology Transactions, 2013, 56:615-622.

[31]Keju Ji, Weigen Shan, Yanqiu Xia, Zhendong Dai. The Tribological Behaviors of Self-Lubricating Composites as Filler in Copper Foam, Tribology Transactions, 2012, 55:1, 20-31.

[32]Zhuoyang Hu; Enhua Cui; KHAN Muhammad Niaz; Qian Zhang, Xuefeng Chen, Keju Ji*. Enhanced Pool Boiling Heat Transfer on Copper Foam Welded Surfaces, Transactions of Nanjing University of Aeronautics and Astronautics, 2022, 39(S)32-41.

[33]Yang Zhou, Changjin Wan, Yongsheng Yang, Hui Yang, Shancheng Wang, Zhendong Dai, Keju Ji, Hui Jiang, Xiaodong Chen, and Yi Long. Highly stretchable, elastic, and ionic conductive hydrogel for artificial soft electronics. Advanced Functional Materials, 2019, 29.1: 1806220.


发明专利:

[1]姬科举;陈文杰,王喜鹏,吴建铭,沈国远,邓凯,姬原鸣。一种基于流体抛光的模具以及仿生黏附结构的制造方法。发明专利申请号:2025117000986.

[2]姬科举, 徐欣冉,赵萌萌,王喜鹏,吴建铭,沈国远,邓凯,姬原鸣。一种基于湿法刻蚀的模具及其制备方法、使用模具制备的仿生黏附垫及其制备方法。发明专利申请号:2025115914403.

[3]姬科举; 吴建铭; 姬原鸣; 王喜鹏; 邓凯; 沈国远。一种具有增摩减黏功能的晶圆搬运装置。发明专利申请号:202510716398.7.

[4]姬科举; 吴建铭; 邓凯; 王喜鹏; 姬原鸣。一种晶圆转移的防脱落仿生增摩垫。实用新型授权号:ZL202423272584.6.

[5]姬科举; 王喜鹏; 吴建铭; 姬原鸣; 邓凯; 刘静。一种易撕型仿生壁虎胶带。实用新型授权号:ZL202423162681.X.

[6]姬科举; 吴建铭; 姬原鸣; 王喜鹏; 邓凯; 刘静。一种耐受高温的晶圆搬运用仿生增摩结构。实用新型授权号:ZL202423113801.7.

[7]姬科举; 吴建铭; 王喜鹏; 邓凯; 姬原鸣; 刘静。一种用于晶圆运输的仿生增摩垫制备设备。实用新型授权号:ZL202423014420.3.

[8]姬科举; 姬原鸣; 王喜鹏; 吴建铭; 邓凯; 刘静; 沈国远。一种仿生黏附垫的安装结构。实用新型授权号:ZL202423008493.1.

[9]姬科举; 王喜鹏; 姬原鸣; 吴建铭; 邓凯; 刘静。一种针对单层纱网的针刺吸盘装置。发明专利申请号:CN202411784155.9.

[10]姬科举; 王喜鹏; 姬原鸣; 吴建铭; 邓凯; 沈国远; 刘静。一种用于光滑材料搬运的仿生吸附垫。实用新型授权号:ZL202422941611.8.

[11]姬科举; 邓凯; 吴建铭; 王喜鹏; 姬原鸣; 刘静。一种仿生黏附材料的黏附力测试机构。实用新型授权号:ZL202422941577.4.

[12]姬科举; 姬原鸣; 王喜鹏; 吴建铭; 邓凯; 刘静。一种可控黏脱附的仿生黏附材料制备装置。实用新型授权号:ZL202422938659.3.

[13]姬科举; 姬原鸣; 吴建铭; 邓凯; 王喜鹏; 刘静。一种仿生吸附垫制备用旋转切割装置。实用新型授权号:ZL202422938661.0. 

[14]姬科举; 王喜鹏; 吴建铭; 姬原鸣; 邓凯; 刘静。一种玻璃表面湿性防打滑的仿生摩擦垫及其制备方法。发明专利申请号:CN202411565325.4.

[15]姬科举; 吴建铭; 马海翔; 王喜鹏; 邓凯。一种自动化玻璃钢板磨边设备。发明专利申请号:CN202411045985.X.

[16]姬科举; 马海翔; 吴建铭; 姬原鸣; 王喜鹏; 邓凯; 刘静; 沈国远。一种面向高温真空环境下模拟镀膜工艺的装置。实用新型授权号:202421673651.2.

[17]姬科举; 姬原鸣; 涂冲文; 吴建铭; 王喜鹏; 邓凯; 刘静。一种可控黏脱附的仿生黏附材料及其制备方法。发明专利申请号:CN202410396539.7.

[18]姬科举;詹浩珍;姬原鸣;吴建铭;王喜鹏;邓凯;刘静。一种用于CMP抛光过程中晶圆固定的仿生增摩垫。实用新型授权号:ZL202421666499.5.

[19]姬科举,赵萌萌,姬原鸣,王喜鹏,吴建铭。一种振动黏附旋转脱附的装置。发明专利申请号:2025103497391.

[20]姬科举,王喜鹏,吴建铭,邓凯,沈国远,姬原鸣。表面多孔吸附结构的仿生增摩垫。实用新型申请号:2025205161215.

[21]姬科举,吴建铭,王喜鹏,邓凯,沈国远,姬原鸣。具有多层复合结构的仿生增摩垫。实用新型申请号:2025205162063.

[22]姬科举,王喜鹏,吴建铭,沈国远,姬原鸣,邓凯。一种用于高摩擦场景的仿生增摩垫。实用新型申请号:2025205315675.

[23]姬科举,吴建铭,马海翔,王喜鹏,邓凯。一种基于真空环境的玻璃、晶圆黏附拾取及脱落装置。发明专利授权号:ZL202410785115.X.

[24]姬科举,朱小磊,姬原鸣,王喜鹏,吴建铭,邓凯。一种仿生黏附装置。实用新型授权号:ZL202420465129.9.

[25]姬科举,赵勇进,付士勋,姚天昌,姬原鸣,王喜鹏,吴建铭,蒋骅。一种多机制协同仿生固定装置。发明专利申请号: 202410227767.1.

[26]姬科举; 吴建铭; 马海翔; 王喜鹏; 邓凯, 一种金属材料内外缺陷检测装置, 发明专利授权号:ZL202411348874.6.

[27]姬科举,姬原鸣,戴振东,李英泽,王周义,吴建铭,王喜鹏,邓凯。一种辅助航天员锻炼与固定的足部可穿戴仿生附着装置,发明专利申请号:202410097189.4.

[28]姬科举; 吴建铭; 马海翔; 王喜鹏; 邓凯, 一种橡胶制品废料回收设备, 发明专利授权号:ZL202410932095.4.

[29]姬科举; 吴建铭; 马海翔; 王喜鹏; 邓凯, 一种多功能塑料制品强度检测装置, 发明专利授权号:ZL202410942200.2.

[30]姬科举,王喜鹏,吴建铭,霍婷薇,姬原鸣,沈国远,曾建,邓凯。一种适用于真空、高温环境下的仿生黏附垫及其制备方法,发明专利申请号:202311437369.4, 实用新型授权号:ZL202322938177.3.

[31]姬科举吴建铭;姬原鸣;沈国远;刘静。一种球冠状末端凸起直柱阵列的仿生增摩减黏垫,发明专利申请号:202311256880.4.,实用新型授权号:ZL202322629125.8.

[32]姬科举;朱小磊;姬原鸣;吴建铭;沈国远;邓凯。一种基于磁力移动控制的真空黏附力测量装置,实用新型授权号:ZL202322625780.6.

[33]姬科举;张佳纯;涂冲文;赵家辉;邓凯;吴建铭;王喜鹏。一种三明治夹层结构仿生摩擦垫及其制备方法,发明专利申请号:202310843448.9, 实用新型授权号:ZL202321804008.4.

[34]姬科举;张佳纯;赵家辉;邓凯;吴建铭;王喜鹏。一种仿昆虫足垫的多层级球冠状增摩减黏垫及其制备方法,发明专利申请号:202310730791.2. 实用新型授权号:ZL202321550803.5.

[35]姬科举;姬原鸣;王喜鹏;王子卓; 陈健;涂冲文;戴振东。一种可负压辅助的卷对卷精密辊压制造装置与方法,发明专利申请号:202210178293.7, 实用新型授权号:ZL202220392600.7.

[36]姬科举;胡卓扬;陈健; 姬原鸣;张迁;戴振东。一种末端膨大的仿生黏附材料高效制造方法,发明申请号:202110621508.3.

[37]姬科举;张迁;胡卓扬;崔恩华;陈健;戴振东。一种透气型仿生黏附材料及其制备方法,发明专利申请号:202110367841.6.

[38]戴振东、姬科举、胡卓扬、王周义、陈健、赵家辉、霍婷薇。一种基于仿生黏附材料的微重力环境下肢骨肌锻炼装置,发明专利申请号:202111640166.6.

[39]姬科举;戴振东;唐义强;赵春霞;乔元华;甘培赟。Flat-pressing manufacturing method of bionic adhesive structure based on a micro through-hole nickel-based mold.发明专利授权号:US 11478976B2(美国).

[40]戴振东;姬科举;崔恩华;陈健;袁聪;唐义强。Preparation method of bionic adhesive material with tip-expanded microstructural array.发明专利授权号:US 11254566B2(美国).

[41]姬科举崔恩华;王子卓;张迁;胡卓扬;戴振东一种集成泡沫金属吸液芯和翅片的散热器。发明专利申请号:202011124199.0.

[42]姬科举;王子卓;崔恩华;张迁;胡卓扬。一种具有六自由度的外墙自动化喷涂设备,发明专利申请号:202011127292.7.

[43]姬科举;戴振东;甘培赟;吴文涛;赵春霞;乔元华。一种加成型耐寒耐辐照硅橡胶及其制备方法与应用。发明专利申请号:202010952598.X.

[44]姬科举;戴振东;唐义强;赵春霞;乔元华;甘培赟。一种基于微通孔镍基模具的仿生黏附结构平压制造方法. 发明专利授权号ZL202010805845.3.

[45]姬科举;戴振东;袁聪;唐义强;陈健;崔恩华。一种末端膨大微结构阵列仿生黏附材料的制备方法,发明专利授权号ZL201910608241.7.

[46]姬科举;王子卓;刘建石;蒋丽;杨静怡;丁海涛。一种面向高楼外墙的自动化打磨喷涂设备。发明专利授权号:ZL201911004085.X.

[47]姬科举;王子卓;杨静怡;刘建石;蒋丽;丁海涛。一种高楼外墙打磨设备,发明专利授权号:ZL201911004080.7.

[48]姬科举;王子卓;王珂星;蒋丽;丁海涛。一种面向高楼外墙的自动化喷涂设备,发明专利授权号ZL201911004073.7.

[49]姬科举;戴振东;唐义强;吴杰;崔恩华;陈健。一种脚状仿壁虎黏附材料的制备方法,发明专利申请号:201910628830.1.

[50]李宏凯;戴振东;姬科举;陈高风。仿生黏附的微重力下复杂运动体旋转消除方法及验证装置。发明专利授权号:ZL201610893407.0.

[51]戴振东;姬科举;赵慧慧。泡沫金属-石墨烯复合材料及其制备方法。发明专利授权号: ZL201310360855.0.

[52]戴振东;夏延秋;姬科举。基于多孔泡沫金属的嵌入式固体自润滑材料及其制备方法。发明专利授权号: ZL201010254843.6.


讲授课程:

仿生轻质功能材料(本科)、造型与结构设计实践(本科)、仿生功能材料设计(本科)、仿生材料设计艺术》(研究生)


承担项目:

[1]国防基础科研计划项目(JCKY2024205C012) XXX仿生粘附回收技术,2025/01-2026/12

[2]天元实验室基金项目(24-JSKY-ZZKT-14),光子元件异质集成的仿生微转移印刷技术研究,2024/01-2025/6

[3]空间站工程航天医学实验领域项目,基于仿生黏附固定的失重防护技术及其力学机制研究,2025/01-2027/12

[4]国家自然科学基金面上项目(52075249),基于超大规模微通孔金属的仿生黏附结构制造关键技术研究,2021/01-2024/12

[5]军委科技委基础加强项目2019-JCJQ-ZD-356),典型爬行动物的吸附与爬行生物学机制,2020/04-2024/04

[6]便携式****技术专题 (AQA23001)2023/06-2024/06

[7]国防重点实验室基金(614200419020),空间辐照环境下仿生粘附材料性能退化机理研究,2020/01-2021/12,结题优秀。

[8]军委科技委前沿创新计划17-163-15-XJ-003-005-01),****理化学机理及行为实现技术研究,2017/05-2017/10,结题通过国防科技成果鉴定,获航天部门应用证明。

[9]国家自然科学基金重点项目(62233008),空间站仿生黏附/攀爬系统可靠交互与运动控制关键技术,2023/01-2027/12(骨干参加)。

[10]极品av 教改项目(2020YJXGG14),创新名城建设背景下的研究生校企协同培养模式探索与实践2020.12~2022.12


个人研究方向及成果介绍主页www.bionic-material.com 


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