Beaded Corded Floral Lace Applique Embroidered Polyester Net Mesh Fabric - Floral Applique, 12.5" X 5" (1 Pair)

Beaded Corded Floral Lace Applique Embroidered Polyester Net Mesh Fabric brings elegant texture, refined shimmer, and a beautifully dimensional floral look to special occasion sewing. Designed on a durable polyester net mesh base, this applique offers a graceful balance of structure and delicacy, making it ideal for projects that need both visual impact and dependable performance. The beaded and corded detailing adds depth and sophistication, while the embroidered floral motif creates a romantic finish that stands out on formalwear and decorative accents.

This heavy-weight applique is especially appealing for bridal and evening applications where high-end detail matters. The net mesh foundation provides stability, and the embellished surface delivers a luxurious appearance without overwhelming the garment. With multiple color options available, it is easy to coordinate with classic, modern, or dramatic design palettes. The approximately 12.5" x 5" size per side makes it a practical choice for symmetrical placements, bodice accents, shoulder details, and couture-inspired embellishment.

• Beaded and corded floral embroidery for rich texture and elegant dimension
• Polyester net mesh base for durability, structure, and reliable handling
• Heavy-weight construction suited for premium sewing and design work
• Approximate 12.5" x 5" size per side for balanced applique placement
• Multiple color options to support bridal, formal, and fashion-forward projects
• Ideal for decorative applications where high color fastness and visual detail matter

• Wedding dresses and bridal gowns
• Evening gowns and formalwear
• Dance costumes and performance outfits
• Fashion embellishment and couture accents
• Special occasion accessories and decorative sewing

Care Instructions: Handle gently to protect the beading and embroidery. Spot clean when needed and avoid harsh washing or high heat to preserve the applique’s finish and structure.