Five lines,one specificationdiscipline
Regenerated solid and hollow staple fibre (1.2D - 60D), high-loft thermal-bonded wadding, needle-punched technical felt, and fusible garment interlinings — engineered to the precise specification of the receiving operation.
What we make,
and who buys it
Spinning mills, wadding converters, nonwoven manufacturers and making-up operations. Each line below states the applications it is actually supplied into.
Regenerated Polyester Staple Fibre
100% Recycled PET feedstock · Bottle flakes & polymer waste
Regenerated Polyester Hollow Fibre
Conjugate hollow infill · Siliconized & non-siliconized
Thermal-Bonded Polyester Wadding
High-loft non-woven infill · Chemical glue-free bonding
Needle-Punched Felt & Non-Woven Materials
Mechanically interlocked structure · All weights
Linings & Fusible Interlinings
Chemical-bonded, stitch-bonded & fusible substrates
Regenerated Polyester Staple Fibre
100% Recycled PET feedstock · Bottle flakes & polymer waste
Engineered recycled polyester staple fibre manufactured from sorted post-consumer PET bottle flakes and clean polymer waste under verified GRS chain of custody. Offered in solid and hollow configurations with tailored siliconized or non-siliconized surface finishes for spinning mills, fibrefill cushioning, and non-woven conversion.
- Fibre category
- Polyester staple fibre (solid & hollow)
- Feedstock origin
- 100% post-consumer PET bottle flakes
- Denier range
- 1.2D - 60D (grade-dependent)
- Cut length
- 32 mm – 102 mm (customer-specified)
- Finish variants
- Siliconized / non-siliconized / slick
- Compliance
- GRS 4.0 (CU1068996) · OEKO-TEX Standard 100
Verified Applications
The route to PSF-R - how this line is made
Feedstock preparation & sorting
Incoming post-consumer PET bottles and clean industrial polymer waste are sorted, hot-washed, and processed into decontaminated flake under GRS chain of custody.
Melt extrusion & spinning
Clean flake is dried, melted in high-pressure extruders, and forced through precision spinnerets to form continuous filament bundles.
Multi-stage drafting & orientation
Filaments pass through heated liquid draw-baths to develop molecular orientation, locking in target tensile tenacity and elongation characteristics.
Thermomechanical crimping & finish
Tow is mechanically crimped to impart 3D elasticity and bulk cohesion, with tailored siliconized or non-siliconized finish chemistry applied.
Rotary cutting, baling & COA
Tow is cut to the specified staple length (32–102 mm) and compressed into standard 200–300 kg moisture-sealed bales with laboratory COA verification.
Route assembled from the line’s verified construction and the published production sequence - per-grade parameters are order-specific and not published from a standing table.
Regenerated Polyester Hollow Fibre
Conjugate hollow infill · Siliconized & non-siliconized
High-resilience regenerated polyester hollow fibre engineered with a continuous hollow cross-section and permanent three-dimensional helical crimp. Manufactured from sorted post-consumer PET under verified GRS chain of custody for exceptional loft recovery, thermal air retention, and down-like softness in pillows, quilts, cushions, and winter garment insulation.
- Fibre category
- Regenerated polyester hollow fibre
- Cross-section profile
- Conjugate hollow (helical 3D crimp)
- Surface finish
- Siliconized (slick hand-feel) / Non-siliconized
- Denier range
- 3D – 15D (filling & batting counts)
- Cut length
- 32 mm – 64 mm (grade-dependent)
- Substance safety
- OEKO-TEX Standard 100 (Class I safe)
Verified Applications
The route to PSF-H - how this line is made
Decontaminated post-consumer feedstock
Selected post-consumer PET flake is hot-washed, optical-sorted, and decontaminated under verified GRS chain of custody for high-purity spinning.
Hollow profile melt extrusion
Molten polymer is extruded through specialized circular-aperture spinnerets to form continuous hollow filaments with internal thermal air channels.
Differential drafting & helical crimp
Bicomponent drafting develops three-dimensional helical spiral crimp, imparting permanent spring-like resilience and high loft recovery.
Siliconization & thermal curing
Tailored silicone micro-emulsion finish is applied and heat-cured in relaxing chambers to create an ultra-soft, slick, down-like hand-feel.
Precision cutting & moisture baling
Cut to uniform staple length (32–64 mm) and packed into 200–300 kg moisture-sealed bales with full batch Certificate of Analysis.
Route assembled from the line’s verified construction and the published production sequence - per-grade parameters are order-specific and not published from a standing table.
Thermal-Bonded Polyester Wadding
High-loft non-woven infill · Chemical glue-free bonding
Resilient non-woven cushioning and insulating batting produced by homogeneously blending polyester staple fibres with low-melt bonding fibres and passing the carded web through a precision thermal bonding oven. The heat-activated bonding process securely fuses the fibre matrix into a high-loft structure without relying on hazardous chemical glues or volatile resins.
- Construction
- Thermal-bonded non-woven (glue-free)
- Bonding mechanism
- Low-melt bicomponent fibre activation
- Core properties
- High loft recovery, breathable, hypoallergenic
- Weight & width
- Customizable GSM & roll width (per order)
- Durability
- Wash-durable loft retention under compression
- Compliance
- Produced within certified ISO & OEKO-TEX framework
Verified Applications
The route to WAD - how this line is made
Fibre opening & precision blending
Selected polyester staple fibres and low-melt bicomponent bonding fibres are pneumatically opened and metered in exact ratios.
Web formation & cross-lapping
High-speed carding machines comb fibres into a fine web, layered by cross-lappers to reach the target GSM, thickness, and loft profile.
Thermal bonding oven (glue-free)
The layered web passes through a multi-zone hot-air oven where low-melt fibres fuse contact points without chemical glues or volatile resins.
Calendering & loft stabilization
Controlled cooling zones and smooth calender rolls stabilize loft recovery, structural density, and surface uniformity.
In-line slitting & protective roll packaging
Continuous edge-slitting, roll winding, and heavy-duty poly-film wrapping with in-line caliper and density quality verification.
Route assembled from the line’s verified construction and the published production sequence - per-grade parameters are order-specific and not published from a standing table.
Needle-Punched Felt & Non-Woven Materials
Mechanically interlocked structure · All weights
Dense, heavy-duty non-woven felt manufactured by mechanically entangling polyester staple fibres using thousands of high-speed barbed needles. The repeated penetration causes fibres to interlock three-dimensionally into a cohesive, dimensionally stable mat with high tear resistance, fluid permeability, and acoustic dampening properties without requiring chemical binders.
- Bonding method
- Mechanical needle-punching (binder-free)
- Structural profile
- Dense, cohesive, isotropic fibre matrix
- Mechanical strength
- High tear resistance & dimensional stability
- Permeability
- Engineered porosity for filtration & air passage
- Feedstock options
- 100% GRS recycled or prime PET
- Custom variants
- Heat-calendered / optional adhesive backing
Verified Applications
The route to FLT - how this line is made
Fibre selection & carding
Selected GRS recycled or prime polyester fibres are opened and carded into a homogeneous multi-directional fibre batt.
Multi-layer cross-lapping
The web is cross-lapped into heavy batts across the specified weight range to ensure isotropic tensile strength in both machine and cross directions.
Mechanical needle-punching
Thousands of reciprocating barbed needles repeatedly penetrate the batt, mechanically interlocking fibres into a dense, binder-free cohesive mat.
Thermal consolidation & calendering
Optional thermal calendering or surface singeing locks thickness tolerances, increases puncture resistance, and sets surface smoothness.
Caliper inspection, slitting & roll winding
In-line density and thickness verification, precision edge-trimming, and protective roll wrapping for industrial dispatch.
Route assembled from the line’s verified construction and the published production sequence - per-grade parameters are order-specific and not published from a standing table.
Linings & Fusible Interlinings
Chemical-bonded, stitch-bonded & fusible substrates
Engineered garment interlinings and fusing materials manufactured across distinct structural technologies — including chemical-bonded non-wovens stabilized with liquid resin binders, high-strength stitch-bonded webs reinforced with polyester threads, and lightweight fusible substrates coated with heat-activated low-melt thermoplastic adhesive dots for structured garment tailoring and making-up reinforcement.
- Construction methods
- Chemical-bonded · Stitch-bonded · Fusible-coated
- Adhesive technology
- Heat-activated low-melt thermoplastic dot coating
- Reinforcement matrix
- Liquid resin binder or high-tenacity stitch threads
- Performance profile
- Dimensional stability, soft drape, peeling resistance
- Fusing parameters
- Order-dependent (temperature, pressure, dwell time)
- Substance safety
- Tested to OEKO-TEX Standard 100 (skin-contact safe)
Verified Applications
The route to INT - how this line is made
Substrate web formation
Non-woven polyester staple fibre webs are carded, or woven base lattices are formed according to the target garment rigidity and drape.
Matrix consolidation
Substrates are consolidated via liquid resin binder thermal curing (chemical-bonded) or mechanical multi-thread stitching (stitch-bonded).
Thermoplastic adhesive dot coating
Heat-activated low-melt thermoplastic adhesive is applied via precision rotary screen printing in computerized dot patterns (CP/double dot).
Thermal curing & drying tunnel
Hot-air curing tunnels anchor adhesive dots securely to the substrate surface without strike-through or compromising fabric hand feel.
Optical inspection, slitting & roll packaging
100% optical inspection for dot uniformity, roll slitting to width, and moisture-sealed packaging accompanied by fusing recommendations.
Route assembled from the line’s verified construction and the published production sequence - per-grade parameters are order-specific and not published from a standing table.
See the floor
before you buy from it
A short film of the production environment. It loads only when you press play.
How it ships
once it is agreed
Packing, documentation and loading are handled in-house, which is what keeps a specification intact between our floor and your intake.
- Standard baling
- 200–300 kg, moisture-sealed with high-tensile strapping
- Roll goods packaging
- Heavy-duty protective poly-wrapping (wadding, felt & interlinings)
- Export logistics
- FCL container loading coordinated from Lahore plant to Karachi ports
- Consignment documentation
- In-house export documentation & consignment Certificate of Analysis (COA)
Tell us the count.
We will quote the bale.
Send denier, cut length, volume and destination. That is enough for a firm answer on feasibility and lead time.