With synthetic fiber production accounting for over 70% of the global total, China's fiber technology has shifted from following to leading, but this position is not solely based on scale. The latest achievements of Academician Zhu Meifang's team at Donghua University—simulated Chang'e-5 lunar soil continuous melt-spinning and the world's first continuous hydrogel optical fiber production line—are injecting new technological variables into the 'fiber power.' These breakthroughs are not just laboratory honors; they will reshape the industrial chain from aerospace materials to smart wearables.
Background
Zhu's team has delved into the fiber field for 40 years, with the core innovation being the 'organic/inorganic hybrid fiber concept,' which achieves functional superposition through nanoscale material compounding, driving fibers toward functionalization, intelligence, and green transformation. This technology has been industrialized in leading enterprises such as Hengyi, Defolun, and Hengshen, developing 15 categories of products including general fibers, smart fibers, and protective materials, covering apparel, transportation, and safety protection, cumulatively driving nearly 100 billion RMB in new output value. This data indicates that the value transformation of basic research is not unattainable but follows a clear commercialization path.
This year, the team established an advanced fiber materials national key laboratory base in Songjiang District, Shanghai, focusing on three tracks: artificial intelligence, biomedicine, and extreme environment materials, implementing a 'bidding' mechanism, with 47 projects currently in concept validation and pilot scale-up. This means the 'last mile' from lab to production line is accelerating, and the driving effect on regional industrial clusters deserves attention.
Industrial Impact
The breakthrough in lunar soil spinning technology has significance far beyond aerospace. The team's self-designed simulated lunar soil drawing equipment has achieved continuous melt-spinning internationally, providing structural material support for future lunar base construction. Once this technological path matures, it will spawn new markets for extreme environment materials, such as fibers for deep-space exploration and deep-sea operations. For buyers, this implies that suppliers with special environmental adaptability may become pioneers in high-value-added fields.
The completion of the hydrogel optical fiber continuous production line brings change to smart wearables and biomedicine. This fiber has excellent biocompatibility and light-guiding properties, enabling precise control over fiber diameter and performance. For factories, this signals the direction of production line upgrades: transitioning from traditional textiles to functional and precision manufacturing to meet downstream demand for smart materials. Additionally, the team developed 'Montese' fine-denier polypropylene fiber, solving the 'bottleneck' in civilian textiles, reminding us that improvements in basic materials still yield significant benefits.
