Annealed Tie Wire for Plastic and Waste Paper Bales in Recycling Plants
Annealed Tie Wire for Plastic and Waste Paper Bales in Recycling Plants is a highly flexible and durable binding solution, designed specifically for securing bales during the recycling process. Made from annealed steel, this wire offers superior strength and ductility, ensuring tight and reliable binding that withstands the pressures of compacting and transporting bales. Its soft and pliable nature allows for easy manual or automated tying, reducing the risk of damage to the baling equipment. Ideal for use in high-volume recycling facilities, this wire is available in various gauges to suit different baling requirements, providing a cost-effective and efficient solution for securing recyclable materials. Annealed wire orbit coils are popularly used in binding of recycled products such as plastics and waste papers.
Annealed Bale Tie Wire
Specifications
- Wire Diameter: 3.5 mm or 4 mm
- Resistance: 300 to 400 N/mm²
- Internal Diameter: 500 mm
- External Diameter: 800 mm
- Height: 800 mm
- Packing: 1000 kg per orbit coil
Features
- Strength and Flexibility: With wire diameters of 3.5 mm or 4 mm, the wire provides the ideal combination of strength and pliability for effective baling.
- Durable Construction: The wire's resistance, rated between 300 to 400 N/mm², ensures it can withstand the pressures of baling and transportation.
- Annealing Process: The softening process enhances ductility, reducing the risk of snapping or breaking under tension, which is crucial for maintaining bale integrity.
Packaging and Handling
- Each coil is formed with an internal diameter of 500 mm, an external diameter of 800 mm, and a height of 800 mm. The wire is packed into orbit coils weighing 1000 kg, ensuring an ample supply for continuous operations in recycling plants. The coil size is designed for easy handling and integration into both manual and automated tying systems.
Options
- Available in various specifications, the Annealed Bale Tie Wire can be tailored to meet different baling requirements, allowing recycling plants to select the most suitable option for their specific needs.
Black Annealed Orbit Coil
Black Annealed Orbit Coil is a versatile wire product designed for a range of industrial applications, including binding, baling, and tying. The wire is processed through annealing to provide flexibility, strength, and enhanced anti-rust properties, making it suitable for demanding environments.
Specifications
- Wire Diameter: Nominal Diameter: 1.63 mm,
Tolerance Range: 1.57 mm to 1.69 mm
- Tensile Strength (Rm): Range: 300 MPa to 450 MPa
- Elongation in 50 mm: Percentage: 30% to 40%
- Surface Finishing: Black annealed with anti-rust protection, providing durability and extended life in various applications.
Chemical Composition
- Carbon (C): ≤ 0.10%
- Manganese (Mn): ≤ 0.60%
- Silicon (Si): ≤ 0.30%
- Phosphorus (P): ≤ 0.035%
- Sulfur (S): ≤ 0.035%
Dimensions and Coil Specifications
- Internal Diameter of Coil: 500 mm to 600 mm (customizable based on requirements)
- External Diameter of Coil: 800 mm to 900 mm
- Height of Coil: 800 mm to 1000 mm
- Weight per Coil:
Standard Packing: 1000 kg per orbit coil
Optional Packing: Custom weights available upon request
Packaging Type:
- Orbit coils, designed for efficient handling and storage.
- Coils are securely wrapped to protect the wire from environmental factors during transportation and storage.
Handling Instructions:
- Coils are suited for both manual and automated systems, ensuring versatility in various operational setups.
Additional Features
- Anti-Rust Protection: The black annealed surface finishing provides a protective layer that resists rust, extending the wire’s usability in outdoor and humid conditions.
- Customization Options: Wire diameter, coil dimensions, and packing options can be customized to meet specific project requirements.
Applications
- Black Annealed Orbit Coil is ideal for use in industries such as construction, recycling, agriculture, and manufacturing, where reliable binding and tying solutions are critical. Its combination of tensile strength, flexibility, and anti-corrosion properties ensures that it meets the demands of various challenging environments.
