【会议日程】国际理论与应用力学联盟（IUTAM）“面向先进制造的复杂流体多元驱动创新”专题研讨会
复杂流体广泛存在于自然过程、生命系统和先进制造中，涵盖生物流体、胶体悬浮液、聚合物熔体、乳液、泡沫及颗粒体系等。近年来，复杂流体在流变调控、界面行为、结构组装和功能集成等方面受到力学、物理学、化学、材料科学、工程学与生物医学等领域的广泛关注，形成了多学科交叉研究热点。复杂流体研究不仅对于理解微结构演化、非线性流变、多相界面稳定性及多场耦合输运等基本问题具有重要意义，而且在芯片制造、3D打印、微纳机器人、绿色制造和精准药物递送等先进制造方向中发挥着关键支撑作用。
本次研讨会由国际理论与应用力学联盟（IUTAM）主办，北京大学承办，北京国际力学中心和北京力学会协办，同时受到了中国力学学会、北京市科协和世界青年科学家联合会女科学家工作委员会的大力支持和指导。研讨会将聚焦复杂流体在先进制造中的基础研究与应用创新，邀请国内外相关领域专家学者莅临，共同探讨流变学、传输行为、界面现象及微观结构如何主导和应对现代制造与加工技术的发展和挑战。同时，研讨会积极响应IUTAM多元化倡议，倡导跨学科合作、青年学者及女性科技工作者所带来的多元视角以激发创新。
会议时间：
2026年8月16至19日（16日报到）
会议地点：
北京大学新奥工学大楼3004报告厅
本次研讨会围绕复杂流体在先进制造的基础研究与应用创新，设置如下五个专题：
芯片制造
3D打印
微纳机器人
绿色制造
精准药物递送
教师代表3200元/人，学生代表1600元/人。
请参会代表扫码注册、缴费和填写发票信息。
段慧玲 院士（北京大学）
陈 光 研究员（北京大学）
陈 光 guangc@pku.edu.cn
满 怡 yiman@pku.edu.cn
张诚诚 zchengcheng@pku.edu.cn
会议网站：http://2026iutam-pku-cfam.com
Welcome to IUTAM Symposium
Diversity-Driven Innovations in Complex Fluids for Advanced Manufacturing
This symposium addresses the critical intersection of complex fluids and advanced manufacturing, an emergent area of high societal impact largely unexplored within traditional IUTAM symposia. We aim to showcase the crucial role of complex fluids in enabling innovation across various advanced manufacturing sectors. Speakers are encouraged to highlight how diversity fuels this innovation, sharing examples of ideas sparked by interdisciplinary collaborations, young scholars, female perspectives, and individuals from historically underrepresented groups. This proposal aligns with the IUTAM diversity call by demonstrating how these fields naturally foster diverse perspectives and collaborations.
We will explore the role of complex fluids in:
Chip Manufacturing: Complex fluid dynamics are crucial in processes like chemical mechanical polishing and resist coating, influencing the uniformity and resolution of microchips. Further advancements depend on new fluid types, novel methods of delivery, and more robust models of transport to achieve the next generation of electronic technologies.
3D Printing: Developing functional inks with precisely controlled rheological properties for 3D printing requires contributions from material science, chemistry, and engineering. Further, the development of 4D printing, in which the printed material changes properties in response to a change in environment, relies on the application of novel, complex fluids.
Micro/Nano Robotics: The manipulation of fluids at small scales and the creation of soft, adaptable robots relies on expertise from multiple fields. Engineering soft robots with sophisticated movements requires in-depth understanding of fluid mechanics at the microscale, novel materials design, and insights from biology.
Green Manufacturing: Most green-manufacturing strategies rely on processing complex fluids—biomass suspensions, functional polymers, adhesives, and foams. Understanding rheology, interfacial behavior, and microstructure enables solvent reduction, efficient processing, precision deposition, and recyclability.
Precision Drug Delivery and Formulation: This area focuses on the use of complex fluids to engineer drug delivery systems with unprecedented control over drug release, targeting, and stability. Advances in microfluidics, nano-encapsulation, and stimuli-responsive materials are enabling the development of personalized therapies with improved efficacy and reduced side effects.
This symposium will emphasize the critical role of multidisciplinary collaboration in driving innovation across these advanced manufacturing sectors. By showcasing the impact diversity-driven innovation in complex fluids on these emergent technologies, this symposium will inspire a new generation of researchers to contribute to this field.
