Fusible interfacing Opaque White Plain Weave 55 g/m² - DHJ
- White opaque woven (plain weave) fusible interfacing for casual shirts
- Suitable for menswear and womenswear
- 100% cotton composition with polyamide-polyester powder dot fusible coating
- Recommended for collars and cuffs
- Non-stretch structure featuring an extra soft finishing
- AFAQ ISO 9001, Oekotex Class II, REACH, BCI (Better Cotton Initiative) certified
- Origin: Made in Europe
- Full care: 40°C machine wash, dry cleaning, and moderate tumble dry
DHJ's expertise in the shirting field is a global benchmark for demanding fashion brands. A long-standing specialist in internal components for shirts, DHJ develops solutions that combine structure and comfort, even for the most casual ranges. This cotton interfacing benefits from recognized know-how to offer durable support while guaranteeing a natural touch and exceptional suppleness thanks to its specific finish.
Quality & performance of our woven fusible interfacing
This DHJ fusible interfacing (reference FT6458ES) is distinguished by its lightness with a weight of 55 g/m². Its 100% cotton plain weave base, made from responsible fibers (BCI), guarantees ideal opacity for white or light-colored casual shirts. Thanks to a polyamide-polyester powder dot coating, it ensures a reliable bond that integrates perfectly with the material. Its "extra soft" finish gives it a particularly soft hand, avoiding any undesirable stiffness. Oekotex Class II certified and REACH compliant, this product ensures consistent safety and quality across our production sites.
Applications
Specifically designed for the casual shirt segment, this fusible interfacing is the ideal solution for providing lightweight yet stable hold to collars and cuffs. Its non-stretch structure allows for precise reinforcement that respects the fluidity and comfort of the finished garment. For optimal results, it can be applied using a continuous press or plate press.
Please note: due to the finishing process, the indicated width (90 cm) may vary by ± 2 cm.