When the nonwoven industry collectively speaks of 'premiumization,' the real dividing line is not on the exhibition samples but at the carding stage—the 'first gate' that determines fiber web quality. The 19th China International Technical Textiles and Nonwovens Exhibition (CINTE26) signaled that the race for high output, high speed, and high quality has evolved from single-equipment competition to a system-level engineering challenge involving components, processes, and production line synergy.
Event Background
CINTE26 opened at the Shanghai New International Expo Centre, a benchmark event in the Asia-Pacific nonwovens sector. The exhibition's layout and exhibitor activities often serve as a barometer for industrial transformation. This edition featured a dedicated zone in Hall W5 for the 15th Five-Year Plan technical textiles, directly embedding national policy direction into the exhibition narrative. This detail itself indicates that policy resources over the next five years will clearly favor high-end technical textiles. Companies that fail to secure their technological position during this window will face higher costs for future capacity upgrades.
Jinlun Needle Cloth launched carding solutions covering the three mainstream nonwoven processes—spunlace, thermal bond, and needle punch—targeting long-standing contradictions between efficiency and quality. Traditional carding components often suffer from reduced web uniformity and increased fiber damage when speeds increase. Jinlun's emphasis on 'comprehensive solutions' essentially addresses downstream demands for reliability through a systematic approach. For buyers, this means equipment selection logic is shifting—no longer evaluating needle cloth lifespan or price alone, but assessing its contribution to continuous production line performance.
Industrial Impact
The ripple effects of carding component upgrades extend far deeper than surface appearances. In spunlace, for instance, every incremental increase in line speed demands exponentially higher uniformity from the carded web; any local defect can be amplified into a quality incident downstream. Jinlun's booth attracted technical personnel from leading companies such as Andritz, Anhui Jinchun, Shandong Yongxin, Jiangsu Huafeng, and Huafu Group. Discussions focused on product fit, process optimization, and line efficiency—reflecting a consensus that competition in high-end nonwovens is essentially a battle for precision across the entire process chain, with carding being the root of most quality bottlenecks.
From an industrial cluster perspective, nonwoven hubs in the Yangtze River Delta and Shandong are accelerating penetration into high-end applications such as medical, filtration, and new energy. This demands more differentiated carding components—for example, ultra-fine fiber carding for battery separators differs fundamentally from conventional fiber carding for hygiene materials in terms of needle geometry, density, and arrangement. Jinlun's placement of exhibits in the 15th Five-Year Plan zone and its emphasis on 'aligning with national industrial development direction' is not mere policy posturing but a precise capture of market signals: future tenders will grant easier access to solutions that conform to national strategic directions. This implicit threshold will accelerate the elimination of small component suppliers lacking R&D reserves.
For downstream factories, carding solution upgrades directly impact their return-on-investment models. A modular carding system compatible with multiple processes can reduce conversion costs when switching product lines. This flexibility is particularly valuable for contract manufacturers that frequently alternate between hygiene materials and industrial filter media, translating into higher equipment utilization and shorter order response times. However, a cautionary note: premiumization does not mean blindly chasing speed parameters. Factories must evaluate the economic boundaries of any solution based on their raw material characteristics and target markets; otherwise, they risk resource misallocation with high-performance equipment operating inefficiently.