黄虎，男，教授，博士生导师，1986年8月出生于湖北省枣阳市，吉林大学唐敖庆学者卓越教授（B岗），国家级青年人才。入选2017-2019年度中国科协“青年人才托举工程”项目、首届“小米”青年学者。曾任数控装备可靠性教育部重点实验室副主任、日本庆应义塾大学客座教授（2023.04.01-2024.03.31）、第六届中国青年科技工作者协会制造与工程科学专业委员会理事和海外学人专门委员会理事。分别于2010年和2014年在吉林大学机械学院获得学士与工学博士学位(导师：赵宏伟教授)。2014年9月受日本学术振兴会(JSPS)奖励资助，以JSPS外国人特别研究员身份在日本庆应义塾大学闫纪旺教授研究室开展研究工作。2017年10月以教授/学术骨干身份入职吉林大学机械与航空航天工程学院，并于2018年3月被遴选为博士生指导教师。目前，担任IEEE Transactions on Industrial Electronics期刊Associate Editor、《中国表面工程》编委、《International Journal of Extreme Manufacturing》和《中国机械工程》青年编委，是IEEE Senior Member，中国机械工程学会(CMES)高级会员，国际仿生工程学会(ISBE)会员，日本精密工学会(JSPE)正会员，是国家自然科学基金、教育部科学技术奖、教育部高层次人才计划、科技部国家级人才计划、工业和信息化部人才计划等评审专家，是国家重点研发计划会评专家，同时也是60余种SCI期刊的审稿人。主要从事材料微观力学性能测试技术与仪器、材料微观变形损伤机制以及表面改性与功能化等方面的多学科交叉研究。研究工作涉及机械、仪器、控制、材料、力学、物理等多学科交叉领域。在Laser & Photonics Reviews(1), Small(3), International Journal of Extreme Manufacturing(1), IEEE Transactions on Industrial Electronics(14), IEEE Transactions on Industrial Informatics(1), Mechanical Systems and Signal Processing(6), IEEE Transactions on Instrumentation & Measurement(3), International Journal of Mechanical Sciences(5), Composites Part B: Engineering(1), Composites Part A: Applied Science and Manufacturing(4), Journal of Materials Processing Technology(4), Scripta Materialia(2), Surface and Coatings Technology(6)等期刊发表SCI论文208篇，其中，作为第一/通讯作者发表SCI论文168篇(1篇Editor's Pick，2篇Research Highlight，2篇被英国皇家物理学会出版社遴选为IOPselect (遴选标准：Novelty, significance and potential impact on future research)，3篇ESI高被引，1篇英国皇家物理学会出版社China Top Cited Paper Award 2023，2篇Featured文章)；在《机械工程学报》发表论文2篇；合著英文专著专章5章，并受邀担任《Piezoelectric Actuators - Principles, Design, Experiments and Applications》和《Metallic Glasses - Properties and Processing》两书编辑。以第一和第二发明人身份申请国家发明专利60件，已授权50件，研制的压痕、划痕测试仪器在北京大学、哈尔滨工业大学、大连理工大学、北京理工大学、山东大学、南华大学、石家庄铁道大学等9家单位得到定制采用，1件压痕发明专利在国机集团中机试验装备股份有限公司得到产业转化。获教育部和吉林省技术发明一等奖3项（排名3, 3, 4），获第五届中国机械工程学会上银优秀机械博士论文铜奖、日本学术振兴会(JSPS)外国人特别研究员奖、第七届中国青少年科技创新奖（依据邓小平同志遗愿设立）、第九届“长白青年科技奖”特优奖（王大珩院士设立）、2022“强国青年科学家提名”等奖励；主持完成的自然科学基金青年基金项目获评“国家自然科学基金机械工程学科2020年度优秀结题项目”（全国当年共计10项，其中面上6项，青年4项）；2022-2025连续四年入选美国斯坦福大学和爱思唯尔数据库联合发布的《全球前2％顶尖科学家榜单》（World's Top 2% Scientists）。English version: https://www.researchgate.net/profile/Hu_Huang 热诚欢迎有相关研究兴趣的本科生与研究生加入团队，共谋发展！研究生主要招收的学科背景为机械、材料、控制、力学、仪器等！硕士名额相对充裕，博士每年招收1-2人！指导优秀本科生取得的代表性成果:1、奖励与荣誉[1]. 吉林大学“十佳大学生”（范昊寅）；[2]. 吉林大学“十佳大学生”提名（王湘元）；[3]. 吉林大学“十佳大学生”提名（曹营华）；[4]. 吉林大学“十佳大学生”提名（肖清润）；[5]. 吉林大学“十佳大学生”提名（范余庆）；[6]. 吉林省双创之星（创新之星）（王湘元）；[7]. 2019年吉林大学优秀本科毕业设计论文（王湘元）；[8]. 2019年机械学院优秀本科毕业设计论文（胡娴子）；[9]. 2020年吉林大学优秀本科毕业设计论文（唐金岩）；[10]. 2020年机械学院优秀本科毕业设计论文（范昊寅，杨晓峰）；[11]. 2021年吉林大学优秀本科毕业设计论文（吴昊）；[12]. 2021年吉林大学优秀本科毕业设计论文（刘宇欣）；[13]. 2021年机械学院优秀本科毕业设计论文（王永伟）；[14]. 2022年吉林大学优秀本科毕业设计论文（衣春学）；[15]. 2025年吉林大学优秀本科毕业设计论文（梁宇进）；[16]. 2026年吉林大学优秀本科毕业设计论文（范余庆）。 2、发表的代表性学术论文[1]. 王湘元，朱利民，黄虎*. A dynamic model of stick-slip piezoelectric actuators considering the deformation of overall system, IEEE Transactions on Industrial Electronics, 68 (2021) 11266-11275. （一区，吉大C刊）[2]. 唐金岩，范昊寅，刘佳慧，黄虎*. Suppressing the backward motion of a stick–slip piezoelectric actuator by means of the sequential control method (SCM), Mechanical Systems and Signal Processing, 143 (2020) 106855.（一区，吉大C刊）[3]. 范昊寅，唐金岩，李涛，杨晓峰，刘佳慧，郭文鑫，黄虎*. Active suppression of the backward motion in a parasitic motion principle (PMP) piezoelectric actuator, Smart Materials and Structures, 28 (2019) 125006.[4]. 刘佳慧，李涛，唐金岩，范昊寅，杨晓峰，郭文鑫，黄虎*. A novel piezoelectric rotary actuator with a constant contact status between the driving mechanism and rotor, Smart Materials and Structures, 28 (2019) 085045.[5]. 王轶瑞，徐智，黄虎*. A novel stick-slip piezoelectric rotary actuator designed by employing a centrosymmetric flexure hinge mechanism, Smart Materials and Structures, 29 (2020) 125006.[6]. 王湘元，黄虎*，范昊寅，孙午向，李轩，刘佳慧. Evolution of one-stepping characteristics of a stick-slip piezoelectric actuator under various initial gaps, Sensors and Actuators A: Physical, 295 (2019) 348-356.[7]. 曹营华，徐智*，游琳敬，邬雅轩，黄虎*. An inertial piezoelectric actuator with small structure but large loading capacity, Review of Scientific Instruments, 92 (2021) 085004.[8]. 衣春学，Z. Xu*, W.Y. Zhao, Y.M. Huang, Y.C. Li, H. Huang*. Achieving high speed of the stick–slip piezoelectric actuator at low frequency by using a two-stage amplification mechanism (TSAM), Review of Scientific Instruments, 93 (2022) 015010.[9]. 杨晓峰，唐金岩，郭文鑫，黄虎*，范昊寅，刘佳慧，李涛. Design and analysis of a stepping piezoelectric actuator free of backward motion, Actuators, 10 (2021) 200.[10]. 汤纪洲，魏靖松，王钰铭，徐智*，黄虎*. A novel rotation-structure based stick-slip piezoelectric actuator with high consistency in forward and reverse motions, Actuators, 10 (2021) 189. [11]. 黄虎，游琳敬，邬雅轩，徐智*，李轩. Achieving stable and effective stick-slip motions of piezoelectric actuators with a small mass rotor by means of the auxiliary friction, IEEE Transactions on Industrial Electronics, 71 (2024) 12835-12845. （一区，吉大C刊）[12]. 徐智，刘涛，李轩，杨智鑫，黄虎*. An impact inertial piezoelectric actuator with high thrust-weight ratio driven by coupling the inertial force and friction force, IEEE Transactions on Industrial Electronics, 71 (2024) 16275-16285. （一区，吉大C刊）[13]. 黄雅明，吴浩翔，姚远，赵宏伟，黄虎*. An ultrasonic vibration scratch tester for studying the scratch characteristics of materials under ultrasonic vibration contact status, Actuators, 13 (2024) 262.[14]. 范余庆，黄旭，朱思辰，徐智*，黄虎*. An impact inertial piezoelectric actuator with improved stepping displacement achieved by magnetic force assistance, IEEE Transactions on Industrial Electronics, 72 (2025) 13928-13938. （一区，吉大C刊）[15]. 钱永峰，安玺桦，安鸿，黄虎*等. Nanosecond laser nanopatterning of highly ordered nanodot arrays on silicon surface: breaking the monopoly of femtosecond lasers, Laser & Photonics Reviews, 19 (2025) 202402105. （一区，吉大C刊）[16]. 范余庆，Z.C. Ding，Q.Y. Li，徐智*，黄虎*等. On the suppression of the oscillations for stick-slip piezoelectric actuators by the active-passive friction coupling actuation method, Science China Technological Sciences, 69 (2026) 1520204. （一区）[17]. 董政，J.C. Zhang， 徐智*，黄虎*等. A two degree-of-freedom impact inertial piezoelectric actuator with low inter-axis coupling, IEEE Transactions on Industrial Electronics, (2026) 接收. （一区，吉大C刊） 3、创新与竞赛[1]. 游琳敬等，2021年度吉林大学“大学生创新创业训练”国家级项目（2022年优秀结题）；[2]. 靳志鹏等，2021年度吉林大学“大学生创新创业训练”省级项目（2022年结题升级为国家级项目结题）；[3]. 衣春学等，2020年度吉林大学“大学生创新创业训练”国家级项目（2021年优秀结题）；[4]. 汤纪洲等，2020年度吉林大学“大学生创新创业训练”省级项目（2021年结题升级为国家级项目结题）；[5]. 衣春学等，吉林大学2021年“挑战杯”大学生课外学术科技作品竞赛一等奖；[6]. 范昊寅等，2019年第十六届“挑战杯”北航投全国大学生课外学术作品竞赛一等奖；[7]. 范昊寅等，2018年度吉林大学“大学生创新创业训练”国家级项目（2020年优秀结题）；[8]. 杨晓峰等，2019年度吉林大学“大学生创新创业训练”国家级项目（2020年优秀结题）；[9]. 范昊寅等，2019年吉林大学大学生学术科技作品竞赛一等奖；[10]. 范昊寅等，2018年全国大学生数学建模竞赛（吉林赛区）二等奖；[11]. 马梓健，杨晓峰，郭文鑫，第四届机构与机器科学大学生国际奥林匹克竞赛（SIOMMS 2018）国际第八名；[12]. 林佳豪等，2022年度吉林大学“大学生创新创业训练”国家级项目结题；[13]. 安玺桦等，2022年度吉林大学“大学生创新创业训练”省级项目结题；[14]. 黄雅明等，2023年度吉林大学“大学生创新创业训练”国家级项目（2024年优秀结题）；[15]. 范余庆等，2024年度吉林大学“大学生创新创业训练”国家级项目（2025年优秀结题）；[16]. 董政等，2025年度吉林大学“大学生创新创业训练”国家级项目（2026年优秀结题）；[17]. 马彪等，2025年度吉林大学“大学生创新创业训练”省级项目结题；[18]. 张烨等，2026年度吉林大学“大学生创新创业训练”国家级立项。指导博士/硕士研究生取得的代表性成果:1、创新、奖励与荣誉[1]. 2019年国际仿生工程学会（ISBE）仿生创新奖三等奖（杨智鑫（协助指导））；[2]. 2020年研究生国家奖学金（李轩、王馗沣）;[3]. 王馗沣等，吉林大学2021年“挑战杯”大学生课外学术科技作品竞赛特等奖；[4]. 王馗沣等，吉林省2021年“挑战杯”大学生课外学术科技作品竞赛一等奖；[5]. 李轩等，吉林大学2021年“挑战杯”大学生课外学术科技作品竞赛二等奖；[6]. 杨智鑫，吉林大学2021年第三十五届研究生“精英杯”学术成果大奖赛“吉林大学研究生科研之星”提名奖；[7]. 王馗沣，吉林大学2021届优秀毕业生；[8]. 王馗沣等，2020年吉林大学创新创业大赛“挑战杯”大学生课外学术科技作品竞赛特等奖；[9]. 王馗沣，吉林大学2021年优秀毕业硕士论文（专硕）；[10]. 徐智等，吉林大学2020年研究生创新研究计划一等资助；[11]. 钱永峰等，吉林大学2020年研究生创新研究计划二等资助；[12]. 2021年研究生国家奖学金（徐智、张洪洋）；[13]. 李轩等，第十七届“挑战杯” 全国大学生课外学术科技作品竞赛国家一等奖；[14]. 李轩等，第十七届“挑战杯” 全国大学生课外学术科技作品竞赛累积创新专项奖；[15]. 2022年研究生国家奖学金（钱永峰）；[16]. 2023年研究生国家奖学金（王超、李轩）；[17]. 2023年吉林大学鼎新学者（钱永峰）；[18]. 2023年国家资助博士后研究人员计划B档资助（钱永峰）；[19]. 张洪洋，吉林大学2023年研究生创新研究计划资助；[20]. 衣春学，吉林大学2024年研究生创新研究计划资助；[21]. 2019年度研究生学术业绩奖学金：徐智（一等）、杨智鑫（二等）、李轩（三等）；[22]. 2020年度研究生学术业绩奖学金：徐智（一等）、杨智鑫（一等）、王馗沣（二等）、钱永峰（二等）；[23]. 2021年度研究生学术业绩奖学金：钱永峰（一等）、徐智（三等）、王超（三等）、张洪洋（三等）；[24]. 2022年度研究生学术业绩奖学金：钱永峰（一等）、王超（一等）、刘艳伟（一等）、李轩（二等）、洪婧（二等）、崔明明（二等）、孙午向（二等）、张帝（三等）；徐智（三等）、衣春学（三等）；[25]. 2023年度研究生学术业绩奖学金：崔明明（一等）、李轩（一等）、王超（一等）、张洪洋（二等）、钱永峰（二等）、刘艳伟（三等）、洪婧（三等）、吴浩翔（三等）；[26]. 2024年研究生国家奖学金（张洪洋、何贵浩、田欣宇）；[27]. 吉林大学优秀博士学位论文（钱永峰（2023）、李轩（2024））；[28]. 吉林大学优秀硕士学位论文（刘宇欣（2024）、安鸿（2024））；[29]. 2024年吉林大学鼎新学者（王超）；[30]. 吴浩翔等，2024年中国国际大学生创新大赛吉林省赛高教主赛道铜奖；[31]. 吉林大学优秀博士学位论文（王超（2025））；[32]. 吉林大学优秀硕士学位论文（王博（2025））；[33]. 吉林大学优秀博士学位论文（王超（2025））；[34]. 吉林大学“精英杯”学术成果大奖赛—科研之星（吴浩翔（2025））；[35]. 何贵浩等，2025年“挑战杯”吉林省大学生课外学术科技作品竞赛特等奖；[36]. 吴浩翔等，2025年全国大学生科学仪器创新大赛二等奖；[37]. 钱永峰，2025年获聘吉林大学唐敖庆青年学者；[38]. 王超，2025年获批日本学术振兴会（JSPS）外国人特别研究员奖励资助，将赴日开展博士后研究工作；[39]. 杨智鑫、徐智，吉林大学机械与航空航天工程学院教师，2025年获批国家自然科学基金青年科学基金项目（C类）；[40]. 2024年度研究生学术业绩奖学金：吴浩翔（一等）、王超（二等）、衣春学（二等）、钱永峰（二等）、田欣宇（三等）、何贵浩（三等）、苏文杰（三等）；[41]. 2025年度吉林省优秀硕士学位论文（刘宇欣、安鸿）；[42]. 2025年研究生国家奖学金（博士：吴浩翔；硕士：徐溥鸿、郭志楠、郭昊霖）；[43]. 吉林大学优秀博士学位论文（张洪洋（2026））；[44]. 吉林大学优秀硕士学位论文（郭志楠（2026））。 2、实时论文发表情况请查阅：Hu Huang (researchgate.net)：https://www.researchgate.net/profile/Hu-Huang-14。以下为研究室目前具备的主要研究与开发能力，热诚欢迎相关研究方向的国内外专家、学者，科研单位以及企事业单位开展交流与合作！研究室目前主要具备以下5项研究与开发能力：1、 粘滑、惯性、尺蠖、超声式压电驱动器（压电马达）的设计、分析、制造与性能测评能力；该方面代表性研究成果：[1]. X. Li, Z. Xu, W.X. Sun, H. Huang*. An auxiliary friction method for miniaturizing the inertial impact piezoelectric actuators (IIPAs), IEEE Transactions on Industrial Electronics, 71 (2024) 777-787. (ESI高被引论文)[2]. W.X. Sun, Z. Xu, K.F. Wang, X. Li, J.Y. Tang, Z.J. Yang, H. Huang*. An impact inertial piezoelectric actuator designed by means of the asymmetric friction, IEEE Transactions on Industrial Electronics, 70 (2023) 699-708. (ESI高被引论文)[3]. Y.W. Liu, Z. Xu*, X. Li, W.X. Sun, H. Huang*. A high-performance stick-slip piezoelectric actuator achieved by using the double-stator cooperative motion mode (DCMM), Mechanical Systems and Signal Processing, 172 (2022) 108999.[4]. X.Y. Wang, L.M. Zhu, H. Huang*. A dynamic model of stick-slip piezoelectric actuators considering the deformation of overall system, IEEE Transactions on Industrial Electronics, 68 (2021) 11266-11275.[5]. Z. Xu, Z.X. Yang, K.F. Wang, X. Li, Y.W. Liu, J.S. Dong, H. Huang*, J.S. Dong. A bionic inertial piezoelectric actuator with improved frequency bandwidth, Mechanical Systems and Signal Processing, 156 (2021) 107620.[6]. Z. Xu, H. Huang*, J.S. Dong. A stick-slip piezoelectric actuator with measurable contact force, Mechanical Systems and Signal Processing, 144 (2020) 106881.[7]. J.Y. Tang, H.Y. Fan, J.H. Liu, H. Huang*. Suppressing the backward motion of a stick–slip piezoelectric actuator by means of the sequential control method (SCM), Mechanical Systems and Signal Processing, 143 (2020) 106855.[8]. Z.X. Yang, X.Q. Zhou, H. Huang*, J.S. Dong, Z.Q. Fan, H.W. Zhao. On the suppression of the backward motion of a piezo-driven precision positioning platform designed by the parasitic motion principle, IEEE Transactions on Industrial Electronics, 67 (2020) 3870-3878. [9]. X. Li, Z. Xu, W.X. Sun, H. Huang*. An auxiliary friction method for miniaturizing the inertial impact piezoelectric actuators (IIPAs), IEEE Transactions on Industrial Electronics, 71 (2024) 777-787. [10]. X. Li, Z. Xu, H.X. Wu, H. Huang*. On the performance improvement of a miniature impact inertial piezoelectric actuator for vertical positioning, IEEE Transactions on Industrial Electronics, 71 (2024) 11185-11194.[11]. H. Huang, L.J. You, Y.X. Wu, Z. Xu*, X. Li. Achieving stable and effective stick-slip motions of piezoelectric actuators with a small mass rotor by means of the auxiliary friction, IEEE Transactions on Industrial Electronics, 71 (2024) 12835-12845.[12]. Z.X. Yang, J.Y. Chen, H. Huang*. Grasshopper hindleg mechanism-inspired bionic miniature stick-slip piezoelectric actuator with high-speed performance, IEEE Transactions on Industrial Electronics, 73 (2026) 10440-10450.[13]. Z.C. Ding, Y.Q. Fan, H. Huang*, Z. Xu, X.Q. Zhou, H.D. Yu*. An elastic energy storage method for achieving efficient stick-slip motion in piezoelectric actuators with small-mass movers, IEEE Transactions on Industrial Electronics, 73 (2026) 2840-2851.[14]. H.X. Wu, Z. Xu, X. Li, X. Zhang, C.X. Yi, H. Huang*. Development of a piezoelectric stick-slip actuator with controllable single-step forward and backward displacements for one-step fabrication of micro/nano hierarchical structures, Mechanical Systems and Signal Processing, 237 (2025) 113125.[15]. Y.Q. Fan, X. Huang, S.C. Zhu, Z. Xu*, H. Huang*. An impact inertial piezoelectric actuator with improved stepping displacement achieved by magnetic force assistance, IEEE Transactions on Industrial Electronics, 72 (2025) 13928-13938.2、离位、原位微纳米压痕/划痕测试仪器的研制能力；该方面代表性研究成果：[1]. B. Wang, H.X. Wu, H. Huang*, H.W. Zhao, Compliant mechanism adaptive suppression of the force fluctuation in motor-driven scratch testers, IEEE Transactions on Industrial Informatics, 21 (2025) 3428-3437.[2]. H.X. Wu, H. Huang*, Z.Y. Zhang, J.W. Yan. Micro-amplitude vibration-assisted scratching: A new method for one step and controllable fabrication of the microscale V-groove and nanoscale ripples, International Journal of Extreme Manufacturing, 7 (2025) 035102.[3]. H.X. Wu, H. Huang*, Z. Xu, X. Li, H.W. Zhao. Development of a vibration-assisted micro/nano scratch tester for evaluating the scratch behaviors of materials under vibration environment, IEEE Transactions on Industrial Electronics, 71 (2024) 15190-15199.[4]. C.X. Yi, H.X. Wu, Y.F. Qian, P.H. Xu, X.Y. Fan, H. Huang*, H.W. Zhao. An in-situ laser-assisted micro/nano scratch tester for characterizing the deformation behaviors of materials at high temperature, IEEE Transactions on Instrumentation & Measurement, 75 (2026) 6003315.[5]. C.X. Yi, D.Y. Wei, H. Huang*, Z. Xu, H.W. Zhao. Stiffness measurement of flexure hinge-based compliant mechanisms by utilizing the nanoindentation method, IEEE Transactions on Instrumentation & Measurement, 74 (2025) 1008411.[6]. W.J. Su, D.Y. Wei, Y.F. Qian, H. Huang*, H.W. Zhao. A nanoindentation instrument for characterizing mechanical properties of materials under high-frequency vibration, IEEE Transactions on Instrumentation & Measurement, 73 (2024) 6000704.[7]. X. Zhang, C. Wang, H. Huang*. A laser-driven high-strain-rate impact indentation test (LDIIT) instrument and its preliminary application for measuring the impact indentation characteristics of a Zr-based amorphous alloy, Review of Scientific Instruments, 96 (2025) 123904.[8]. G.H. He, H.X. Wu, H. Huang*, H.W. Zhao. An in-situ scratch tester under the confocal laser scanning microscope (CLSM), Vacuum, 222 (2024) 113033.[9]. H.X. Wu, H. Huang*, X. Li, D.Y. Wei, Z. Xu, H.W. Zhao. Design and Experiments of an In Situ Scratch Tester Inside the Scanning Electron Microscope, Materials Transactions, 65 (2024) 37-42.[10]. 衣春学，刘仁霖，张旭，黄虎*, 赵宏伟. 扫描电镜内原位微纳米压痕测试装置设计与试验研究, 机械工程学报 61 (2025) 30-39.[11]. H. Huang, H.W. Zhao. Non-ideal assembly of the driving unit affecting shape of load-displacement curves, Measurement Science and Technology, 26 (2015) 035601 ((Highlights of 2015, IOP SELECT).[12]. H. Huang, H.W. Zhao, C.L. Shi, L. Zhang. Using residual indent morphology to measure the tilt between the triangular pyramid indenter and the sample surface, Measurement Science and Technology, 24 (2013) 105602.[13]. 黄虎, 赵宏伟, 史成利, 杨兆军, 万顺光, 耿春阳. 压电驱动型微纳米压痕测试装置的设计与试验研究, 机械工程学报 49 (2013) 1-7.[14]. H. Huang, H.W. Zhao, J. Mi, J. Yang, S.G. Wan, Z.J. Yang, J.W. Yan, Z.C. Ma, C.Y. Geng. Experimental research on a modular miniaturization nanoindentation device, Review of Scientific Instruments, 82 (2011) 095101.3、材料表面微纳米压痕、划痕测试表征与分析能力以及微纳缺陷预制能力；该方面代表性研究成果：[1]. H.Y. Zhang, H. Huang*, C. Wang, H.Y. Zhang, H.X. Wu. Understanding the micro-deformation behavior of the FeCoCrMnNi high-entropy alloy during vibration-assisted scratching, Tribology International, 217, (2026) 111662.[2]. H.Y. Zhang, H. Huang*, C. Wang, H.Y. Zhang, H.X. Wu. Effects of cold rolling and annealing on the micro-deformation behavior of the FeCoCrMnNi high entropy alloy under scratching, Tribology International, 214, Part B, (2026) 111259.[3]. H.Y. Zhang, H. Huang*, C. Wang, H.Y. Zhang, H.X. Wu. On the scratch characteristics of the AlCoCrFeNi2.1 eutectic high-entropy alloy, Journal of Alloys and Compounds, 1037 (2025) 182540.[4]. H.Y. Zhang, H. Huang*, C. Wang, H.Y. Zhang, H.X. Wu. Effects of the indenter orientation and the crystallographic orientation on the scratch characteristics of FeCoCrMnNi high entropy alloy, Wear, 564-565 (2025) 205694.[5]. H.Y. Zhang, H. Huang*, C. Wang, H.Y. Zhang, H.X. Wu, H.W. Zhao. Nanoindentation behaviors of the AlCoCrFeNi2.1 eutectic high-entropy alloy: The effects of crystal structures, Journal of Alloys and Compounds, 1008 (2024) 176535.[6]. Y.X. Liu, H.X. Wu, H.Y. Zhang, T. Liu, H. Huang*. Effects of the deflection angle of the indenter on the material removal and damage evolution of fused silica during scratching, Journal of Manufacturing Processes, 119 (2024) 109-117.[7]. T. Liu, H.X. Wu, Y.X. Liu, H. Huang*. The effects of the angle between the indenter edge and the scratch direction on the scratch characteristics of Ti-6Al-4V alloy, Wear, 556-557 (2024) 205507.[8]. J. Hong, H.X. Wu, H. Huang*, L. Zhang, Z.Y. Zhang, M.Q. Jiang, J.W. Yan. The scratch characteristics of laser nitrided Zr-based metallic glass surface, Intermetallics, 155 (2023) 107832.[9]. H. Huang*, M.Q. Jiang, J.W. Yan. New evidences for understanding the serrated flow and shear band behavior in nanoindentation of metallic glasses, Journal of Alloys and Compounds, 857 (2021) 157587.[10]. H. Huang, J.W. Yan. Investigating shear band interaction in metallic glasses by adjacent nanoindentation, Materials Science and Engineering: A, 704 (2017) 375-385.[11]. H. Huang, J.W. Yan. New insights into phase transformations in single crystal silicon by controlled cyclic nanoindentation, Scripta Materialia, 102 (2015) 35-38.[12]. H. Huang, J.W. Yan. Possibility for rapid generation of high-pressure phases in single-crystal silicon by fast nanoindentation, Semiconductor Science and Technology, 30 (2015) 115001.[13]. H. Huang, J.W. Yan. On the mechanism of secondary pop-out in cyclic nanoindentation of single-crystal silicon, Journal of Materials Research, 30 (2015) 1861-1868.4、材料表面纳秒激光微结构化与功能化的能力；该方面代表性研究成果：[1]. H. An, Y.F. Qian*, X.Z. Xu, H.L. Guo, B. Wang, Z.Y. Zhang, M.Q Jiang, H. Huang*, J.W. Yan. Manipulating wetting state of CFRP via one-step laser micro/nanostructuring, Small, 21 (2025) e06695.[2]. M.M. Cui, H. Huang*, L. Zhang, J.W. Yan. Nanosecond laser "pulling" patterning of micro-nano structures on Zr-based metallic glass, Small, 19 (2023) 2206516.[3]. H.L. Guo, Y.F. Qian*, H. An, P.H. Xu, X. Wang, H. Huang*, Z.Y. Zhang, M.Q Jiang, J.W. Yan. Laser-induced visualization of latent fingerprints on metal surfaces, Small, 21 (2025) e07281.[4]. H. An, Y.F. Qian*, M.Q. Jiang, H. Huang*, J.W. Yan. Unveiling the effects of laser scanning direction and processing parameters on heat transfer and ablation behavior of CFRP, Composites Part B: Engineering, 298 (2025) 112407.[5]. H. An, Y.F. Qian*, H.L. Guo, X.Z. Xu, H. Huang*, J.W. Yan. A novel approach for reducing thermal damage in laser processing of CFRP through synergistic cryogenic cooling and lateral gas blowing: Mechanism analysis and parameter optimization, Composites Part A: Applied Science and Manufacturing, 204 (2026) 109598.[6]. H.Y. Zhang, H. Huang*, J.W. Yan. Simultaneous laser nitriding and biomimetic texturing: A synergistic strategy for enhancing mechanical properties and corrosion resistance of Ti6Al4V alloy, Journal of Materials Processing Technology, 345 (2025) 119074.[7]. M.M. Cui, H. Huang*, C. Wang, L. Zhang, J.W. Yan. Achieving superhydrophobicity of Zr-based metallic glass surfaces with tunable adhesion by nanosecond laser ablation and annealing, ACS Applied Materials & Interfaces, 14 (2022) 39567-39576.[8]. C. Wang, L.Y. Li, H. Huang*, J.W. Yan. Fabrication of convex and concave microstructures on Ti6Al4V via nanosecond laser texturing and their distinct effects on surface wettability, Journal of Manufacturing Processes, 152 (2025) 616-630.[9]. H. Huang, Y.F. Qian, L. Zhang*, M.Q. Jiang, J.W. Yan. A novel method for fabricating micro-dimple arrays with good surface quality on metallic glass substrate by combining laser irradiation and mechanical polishing under wax sealing, Journal of Manufacturing Processes, 79 (2022) 911-923.[10]. C. Wang, H.Y. Zhang, H. Huang*, Z.Y. Zhang, L. Zhang, J.W. Yan. On the conversion of point-to-linear hierarchical micro/nano-structures on the glassy carbon surface by nanosecond pulsed laser irradiation, Applied Surface Science, 599 (2022) 153978.[11]. Y.F. Qian, H. Huang*, M.Q. Jiang, J.W. Yan. Nanosecond pulsed laser-induced formation of nanopattern on Fe-based metallic glass surface, Applied Surface Science, 577 (2022) 151976.[12]. Y.F. Qian, H. Huang*, C. Wang, P. Yu, J.K. Xu, Z.Y. Zhang. Formation of leaf-shaped microstructure on Zr-based metallic glass via nanosecond pulsed laser irradiation, Journal of Manufacturing Processes, 72 (2021) 61-70.[13]. C. Wang, H. Huang*, Y.F. Qian, Z.Y. Zhang, W.H. Huang, J.W. Yan. Nitrogen assisted formation of large-area ripples on Ti6Al4V surface by nanosecond pulse laser irradiation, Precision Engineering, 73 (2022) 244-256.[14]. Y.F. Qian, M.Q. Jiang, Z.Y. Zhang, H. Huang*, J.W. Yan. On the transformation between micro-concave and micro-convex in nanosecond laser ablation of a Zr-based metallic glass, Journal of Manufacturing Processes, 68, Part A (2021) 1114-1122.[15]. C. Wang, H. Huang*, Y.F. Qian, Z.Y. Zhang, J.W. Yan. One-step fabrication of regular hierarchical micro/nano-structures on glassy carbon by nanosecond pulsed laser irradiation, Journal of Manufacturing Processes, 62 (2021) 108-118.[16]. J. Hong, H. Huang*, L. Zhang, Z.Y. Zhang, M.Q. Jiang, J.W. Yan. Laser polishing and simultaneous hardening of the electrical discharge machined Zr-based metallic glass surface, Materials & Design, 237 (2024) 112599.5、材料表面激光修复与力学性能调控的能力；该方面代表性研究成果：[1]. P.H. Xu, Y.F. Qian*, H. An, H.L. Guo, Z.Y. Zhang, M.Q. Jiang, H. Huang*, J.W. Yan. Evolution of surface and subsurface properties of Zr-4 alloy under the combined effects of laser heat treatment and laser gas nitriding: Microscopic morphology, chemical composition, and mechanical behavior, Journal of Materials Processing Technology, 339 (2025) 118833.[2]. H. Huang, P.H. Xu, Y.F. Qian*, J.W. Yan. Laser nitriding enables robust wear resistance in Zr-4 alloy across multiple typical service environments, Tribology International, 217 (2026) 111572.[3]. Y.F. Qian, B. Liu, J. Hong, M.Q Jiang, Z.Y. Zhang, L. Zhang, H. Huang*, J.W. Yan. Simultaneous flattening and hardening of laser shock peened Zr-based metallic glass surface by nanosecond laser irradiation in a flowing nitrogen atmosphere, Journal of Materials Processing Technology, 326 (2024) 118313.[4]. C. Wang, H. Huang*, H.Y. Zhang, L. Zhang*, J.W. Yan. Laser repairing of FeCoCrNiV high-entropy alloy and its mechanical and cutting characteristics, Journal of Materials Processing Technology, 317 (2023) 118003. [5]. J. Hong, S. Liu, A.F. Li, C. Wang, Q.H. Li, Y.H. Yang*, H. Huang*. Tuning the tribological properties of metallic glasses: Synergistic effects of laser nitriding and subsequent laser polishing, Tribology International, 220, (2026) 111982.[6]. H.Y. Zhang, C. Wang, H. Huang*, J.W. Yan, L. Zhang, M.Q. Jiang, Z.Y. Zhang. Achieving ultra-low wear of Ti6Al4V alloy by introducing a sinusoidal nitriding layer via nanosecond pulsed laser irradiation, Tribology International, 200 (2024) 110113.[7]. H.Y. Zhang, Y.F. Qian, L. Zhang, M.Q. Jiang, H. Huang*, J.W. Yan. Significant improvement in surface hardness of Zr-based metallic glass by nanosecond pulsed laser irradiation in graphite powder water suspension, Surface and Coatings Technology, 454 (2023) 129195.[8]. Y.F. Qian, D. Zhang, J. Hong, L. Zhang, M.Q. Jiang, H. Huang*, J.W. Yan. Microstructure and mechanical properties of SiC particle reinforced Zr-based metallic glass surface composite layers produced by laser alloying, Surface and Coatings Technology, 446 (2022) 128784. [9]. D. Zhang, Y.F. Qian*, L. Zhang, H. Huang*, J.W. Yan. Surface hardening of Zr-based metallic glass via laser surface alloying with silicon powder, Scripta Materialia, 220 (2022) 114940. [10]. C. Wang, H. Huang*, H.X. Wu, J. Hong, L. Zhang, J.W. Yan. Ultra-low wear of titanium alloy surface under lubricated conditions achieved by laser texturing and simultaneous nitriding, Surface and Coatings Technology, 474 (2023) 130083.[11]. C. Wang, J. Hong, M.M. Cui, H. Huang*, L. Zhang, J.W. Yan. The effects of simultaneous laser nitriding and texturing on surface hardness and tribological properties of Ti6Al4V, Surface and Coatings Technology, 437 (2022) 128358.[12]. J. Hong, Y.F. Qian, L. Zhang, H. Huang*, M.Q. Jiang, J.W. Yan. Laser nitriding of Zr-based metallic glass: An investigation by orthogonal experiments, Surface and Coatings Technology, 424 (2021) 127657.[13]. H. Huang*, M.Q. Jiang, J.W. Yan*. The coupling effects of laser thermal shock and surface nitridation on mechanical properties of Zr-based metallic glass, Journal of Alloys and Compounds, 770 (2019) 864-874.[14]. H. An, Y.F. Qian*, L. Zhang, Z.Y. Zhang, H. Huang*, J.W. Yan. On the surface characteristics and removability of RB-SiC composite processed by nanosecond pulsed laser, Composites Part A: Applied Science and Manufacturing, 180 (2024) 108082.[15]. Y.F. Qian, M.Q. Jiang, Z.Y. Zhang, H. Huang*, J. Hong, J.W. Yan. Microstructures and mechanical properties of Zr-based metallic glass ablated by nanosecond pulsed laser in various gas atmospheres, Journal of Alloys and Compounds, 901 (2022) 163717.以下为研究室自主研制的微纳米压痕、划痕测试仪器简介，欢迎联系定制（一）微纳米压痕测试仪（二）微纳米划痕测试仪（三）0-200N微尺度划痕测试仪（四）扫描电镜内原位微纳米压痕测试仪（五）扫描电镜内原位微纳米划痕测试仪（六）高温、高应变率极端条件微纳米压痕测试仪注：其他与激光共聚焦、微CT结合使用的原位压痕、划痕测试仪器以及具有特殊应用场景的压痕、划痕测试仪器可以联系定制。部分外单位仪器定制、测试用户论文：[1]. Advanced Functional Materials, 36 (2026) e05769. [2]. Chemical Engineering Journal, 511 (2025) 161734. [3]. Chemical Engineering Journal, 495 (2024) 153550. [4]. Materials Research Bulletin, 193 (2026) 113654. [5]. Journal of Manufacturing Processes, 149 (2025) 917–930. [6]. Engineering Fracture Mechanics, 338 (2026) 112031. [7]. 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