我们致力于新材料及异种材料连接、焊接结构评价与延寿、电弧增材制造等前沿领域,结合原位电镜表征与微纳力学,推动焊接学科在航空航天、核工业、电子封装领域的应用与发展。We focus on novel material joining, structural integrity of welded components, wire arc additive manufacturing, in-situ TEM characterization, and nanomechanics — advancing the application and development of welding in aerospace, nuclear industry, and electronic packaging.
围绕先进制造国家战略需求,开展基础与应用研究
针对高熵合金、钛合金、铝合金等新材料及异种材料体系,研究焊接冶金行为与接头性能调控机制。Investigating welding metallurgy and joint performance of high-entropy alloys, titanium, aluminum alloys, and dissimilar material systems.
开展焊接结构的疲劳、断裂及腐蚀行为研究,建立寿命预测模型,为工程结构延寿提供理论依据。Studying fatigue, fracture, and corrosion of welded structures, and developing life prediction models for engineering applications.
基于电弧熔丝增材制造(WAAM)技术,研究大型金属构件的成形工艺、组织调控与力学性能优化。Employing WAAM to investigate forming processes, microstructure control, and mechanical property optimization of large metal components.
发展原位透射电子显微镜技术,实时观测连接界面的形成演变过程,揭示微观变形与断裂机制。Developing in-situ TEM techniques to observe real-time evolution of joining interfaces and reveal microscale deformation and fracture mechanisms.
利用微纳米力学测试手段,定量表征焊接接头局部区域的力学性质,为本构模型建立提供数据支撑。Quantitatively characterizing local mechanical properties of welded joints via micro/nano-mechanical testing to support constitutive model development.
研究先进芯片封装中的互连材料与工艺,解决高密度封装面临的热-力耦合可靠性问题。Investigating interconnect materials and processes in advanced chip packaging to address thermo-mechanical reliability challenges.
课题组近期研究进展与重要事件
近年发表于高影响力期刊的重要成果
来自不同背景的优秀研究人员共同推进科学前沿



