Project Profile: Textile Waste (Jhut) Upcycling Plant

Textile waste—locally referred to as jhut in major manufacturing hubs—presents a high-yield opportunity for circular manufacturing. Converting pre-consumer garment scraps into regenerated fiber, spun yarn, and engineered non-woven materials addresses critical supply chain bottlenecks while reducing landfill volume.

Executive Summary

Upcycling factory offcuts reduces primary resource dependencies, lowers carbon footprints, and recovers high-value cotton and synthetic fibers. This project profile outlines the operational layout, machinery configuration, financial feasibility, and environmental metrics required to establish a 10-ton-per-day mechanical upcycling facility.

Key Metric	Details
Target Processing Capacity	10 Metric Tons / Day (3,000 MT / Year)
Primary Feedstock	Pre-consumer knit and woven fabric offcuts (jhut)
Primary End Products	Regenerated Cotton Fiber, Rotorspun Yarn, Non-woven Insulation Padding
Estimated Capital Expenditure (CapEx)	$1.85 Million USD
Target Payback Period	3.2 Years
IRR (Internal Rate of Return)	24.5%

Processing Workflow & Technology

The facility utilizes advanced mechanical tearing and opening lines to preserve fiber length while removing non-textile contaminants.

1.Collection & Optical Sorting:Input Quality Control.

Raw jhut is collected, weighed, and sorted by color and composition (e.g., 100% Cotton, Poly-Cotton blends). Optical sorting systems detect and reject synthetic contaminants, elastomeric fibers, and metal hardware.

2.Metal Detection & Mechanical Trimming:Equipment Protection.

Scraps pass over magnetic separators to clear residual zippers, buttons, and metallic trims. Automated rotary cutters downsize large fabric pieces into uniform

5\text{ cm} \times 5\text{ cm}

swatches.

3.Multi-Stage Shredding & Rag Tearing:Fiber Extraction.

A 6-cylinder rag-tearing machine progressively breaks down fabric matrix structures into individual fibers. High-speed pin cylinders pull threads apart with minimal tensile degradation.

4.Baling & Spun/Non-woven Output:Final Packaging.

Extracted fibers are blended, dust-extracted, and compressed into

200\text{ kg}

high-density bales for open-end spinning mills or routed to non-woven needle-punching lines.

Equipment & Plant Specifications

Achieving clean fiber extraction requires specialized machinery rated for continuous heavy-duty operations.

Required Equipment Inventory

Heavy-Duty Rotary Fabric Cutter: $15\text{ kW}$ motor; dual-blade shearing action.
6-Cylinder Mechanical Rag Tearer: Variable speed control with spiked lag cylinders.
Central Dust Collection & Filtration Unit: Reverse-pulse jet system maintaining sub-micron particle air safety.
Automatic Continuous Hydraulic Baler: $50\text{-ton}$ compression capacity.
In-line Optical Color Sorter: High-resolution sensor array for automated shade segregation.

Financial Profile & Feasibility

Capital Expenditure Breakdown (CapEx)

Investment Area	Cost Allocation (USD)	Percentage
Land & Site Preparation (20,000 sq ft)	$350,000	18.9%
Processing Machinery & Installation	$980,000	53.0%
Utility Infrastructure (Power, HVAC, Dust Control)	$220,000	11.9%
Working Capital (3 Months Operational Cover)	$200,000	10.8%
Contingency & Licensing	$100,000	5.4%
Total CapEx	$1,850,000	100%

Operational Economics (Per Ton Output)

Sustainability & Environmental Impact

Upcycling pre-consumer textile waste eliminates major upstream resource expenses associated with virgin fiber production.

Water Offset: Saves up to $10,000\text{ liters}$ of water per kilogram of recycled cotton compared to virgin cotton farming.
Carbon Reduction: Diverting 3,000 MT of jhut annually avoids approximately $10,100\text{ MT}$ of $\text{CO}_2$ equivalent emissions relative to landfill incineration.
Chemical Reduction: Preserves natural scrap colors, reducing dye requirements and hazardous effluent runoff.