The 7th International Symposium on Soft Matter Science and Engineering (SMSE 2026) was successfully held at South China University of Technology in Guangzhou from June 14th to 18th, 2026. Under the central theme of Precision Soft Matters, the conference convened nearly 40 distinguished experts and scholars from over 20 leading universities and research institutions worldwide, including Yale University, McMaster University, University of California, Riverside, Nihon Institute of Chemistry, Kyoto University, Fudan University, Sichuan University, Jilin University, East China University of Science and Technology, and Donghua University. The symposium provided a premier international forum for discussing the latest breakthroughs and charting future directions in the field. The presentations and discussions were structured around three core pillars: Precision Chemistry, Precision Physics, and Precision Engineering.

Precision Chemistry: Mastering Molecular Architecture. In the realm of precision chemistry, significant advances were reported in achieving unprecedented control over polymer primary structure. Researchers showcased groundbreaking work on synthesizing polymers with precisely regulated sequence and stereoregularity through innovative monomer design. 

Precision Physics: Unraveling Order and Dynamics. The precise physical sessions focused on advanced assembly techniques and theoretical modeling. Magnetic-field-directed assembly technology emerged as a transformative tool, with research teams demonstrating the non-contact, large-area ordering of 2D nanosheets and biological virus colloids. Concurrently, significant theoretical progress was reported on complex spherical phases in soft matter, with the establishment of a unified theoretical framework that deepens our understanding of Frank Kasper phases and other complex ordered structures.

Precision Engineering: From Processing to Functionality. The precision engineering track spanned a broad spectrum, from fundamental processing to cutting-edge applications: a multi-step asymptotic stretching method for overcoming the limit of polymer ultrathin films; linear liquid crystal polymers that operate without chemical crosslinking; intelligent plasmonic nanostructured materials for photothermal-driven soft microrobots.  

This seminar successfully showcased the vibrant and rapidly evolving landscape of the field. The convergence of precision chemistry, precision physics, and precision engineering underscores a collective movement towards creating functional soft materials with tailor-made properties for next-generation technologies. SMSE 2026 not only highlighted the current state-of-the-art but also fostered invaluable international collaborations that will undoubtedly shape the future of soft matter research.