In modern textile production, looms often maintain long-term high-speed continuous weaving status. A large number of warp yarns are arranged densely in the weaving area. Without targeted sorting and separation structures, adjacent warp yarns will constantly rub and collide during high-speed operation. This situation causes yarn strand disorder, yarn wear and partial yarn overlapping, bringing unstable factors to daily weaving production. The Middle Yarn Dividing Frame with Warp Stop Guide Seat is professionally developed for high-speed weaving working conditions, with structural designs focused on yarn separation and limiting friction, which effectively solves the problem of mutual friction and collision of dense warp yarns during continuous loom operation.
Textile workshops often carry out rotating production of various fabrics, and different fabric types bring changing warp tension and operating load to loom equipment. The warp stop strip is a key component for monitoring broken warp threads, and its stable operating position directly affects the normal operation of the loom and fabric weaving status. Ordinary supporting brackets have simple limit structures with poor positioning restraint effect. When the production is switched between thick and thin yarns and different textile materials, the warp stop strip is prone to offset and sliding under the change of tension and mechanical vibration, resulting in abnormal detection signals and intermittent equipment shutdown.
High-speed air-jet looms are widely applied in modern textile weaving production, featuring stable running status and high weaving efficiency. During continuous operation, warp yarn breakage is an inevitable occasional issue. Traditional warp stop structures only send out shutdown signals after yarn breakage occurs. Affected by spindle inertia, the loom will keep running for a certain distance before complete static state. Delayed parking response leads to continuous weft insertion after warp breakage, forming long defective sections on the fabric surface and increasing fabric loss and subsequent finishing workload. The Air-Jet Loom Warp Stop Motion With Break Parking optimizes the induction and braking linkage logic, effectively shortening the overall stop response time and solving the inertia operation problem of traditional looms after warp breakage.
Modern textile weaving production features continuous operation and frequent fabric type switching, placing stable and reliable warp break monitoring as a basic guarantee for orderly loom operation. Traditional warp stop bars have single structural design and uneven conductive performance, which cannot adapt to long-term high-frequency operation of various looms. In actual workshop operation, conventional accessories are prone to poor contact and insensitive signal induction under the influence of flying fluff, humid air and mechanical vibration.
In modern textile weaving workshops, warp yarn bearing and stable tension control constitute the core guarantee for continuous loom operation. Different types of warp yarns, including cotton yarn, chemical fiber yarn, blended yarn and thickened special yarn, present distinct bearing pressure and tension characteristics during high-speed weaving. Traditional support parts suffer from structural shaking and insufficient bearing adaptability when facing diversified warp yarn types, which interfere with the normal detection of warp stop motion and affect workshop weaving progress.
In the daily production process of textile weaving, the warp yarn arrangement and dividing work occupies an essential part of the weaving process. Unordered yarn arrangement and overlapping yarn lines often cause operational obstacles during loom operation, bringing extra pressure to yarn finishing and weaving processing. The traditional yarn dividing auxiliary structures have single structural settings, which cannot cooperate stably with the warp stop spacer seat.
