Product Details
Place of Origin: Hebei
Brand Name: Beyde
Certification: CE
Model Number: 400/1+12
Payment & Shipping Terms
Minimum Order Quantity: 1 set
Packaging Details: Safety container packing
Delivery Time: 90 days
Payment Terms: L/C, D/A, D/P, T/T
Supply Ability: 200 set/year
Usage: |
Stranding |
Color: |
Blue,According To Customer Requirement |
Name: |
Tubular Stranding Machine |
Application: |
Steel,aluminium,stranding Steel Wire |
Wire Material: |
Copper |
Machine Central Height: |
1000mm |
Central Pay-off Bobbin: |
PN400-PN630 |
Power: |
11kw |
Take-up Bobbin Size: |
PND800-PND1600 |
Plc: |
Siemens |
Minimum Bare Wire Diameter: |
1-5mm |
Maximum Bare Wire Diameter: |
15mm |
Usage: |
Stranding |
Color: |
Blue,According To Customer Requirement |
Name: |
Tubular Stranding Machine |
Application: |
Steel,aluminium,stranding Steel Wire |
Wire Material: |
Copper |
Machine Central Height: |
1000mm |
Central Pay-off Bobbin: |
PN400-PN630 |
Power: |
11kw |
Take-up Bobbin Size: |
PND800-PND1600 |
Plc: |
Siemens |
Minimum Bare Wire Diameter: |
1-5mm |
Maximum Bare Wire Diameter: |
15mm |
400/1+12 Durable and Advanced Tubular Stranding Machine for High-Performance Cable Manufacturing
A tubular strander is a specialized machine used in the wire and cable manufacturing industry to twist multiple wires or conductors into a compact, helical structure. Unlike planetary stranders, which use a rotational and orbital motion, tubular stranders employ a linear or rotational movement around a central axis, resulting in a tubular or layered stranding pattern. This method is ideal for producing cables with high flexibility, durability, and uniformity, making it suitable for a wide range of applications.
Tubular stranders are commonly used in the production of:
The performance and capabilities of a tubular strander are determined by several critical parameters. These parameters influence the machine's efficiency, flexibility, and suitability for specific applications. Below are the key parameters:
Parameter | Description | Typical Range |
---|---|---|
Number of Spindles | Determines how many wires can be stranded simultaneously. | 4, 6, 8, 12, 16, 24 (or more) |
Wire Capacity | Maximum wire diameter the machine can handle. | 0.05 mm – 6.0 mm |
Lay Length Adjustment | Controls the pitch (distance for one complete twist). | Adjustable (0.1 mm – 50 mm or more) |
Stranding Speed | Rotational speed of the stranding head (affects production rate). | 50 – 500 rpm (variable speed) |
Take-Up Capacity | Maximum cable diameter the machine can wind. | 50 mm – 600 mm (or more for large machines) |
Power Requirement | Motor power needed for operation. | 10 kW – 100 kW (depending on size) |
Tension Control System | Ensures uniform wire tension during stranding. | Automatic or manual tensioners |
Frame Material | Construction material for durability and stability. | Steel or stainless steel (with anti-corrosion coating) |
Control System | CNC or PLC-based automation for precision and ease of operation. | Basic, semi-automatic, or fully automatic |
Stranding Pattern | Determines the type of stranding (e.g., concentric, sector, or tubular). | Configurable based on application |
Wire Feeding System | Supplies individual wires or conductors to the stranding head. | Automated or manual feeding systems |
Cooling System | Prevents overheating during high-speed operation. | Air or liquid cooling systems |
Based on application and automation level, tubular stranders can be categorized into:
Manual Tubular Strander
Semi-Automatic Tubular Strander
Fully Automatic Tubular Strander
High-Speed Tubular Strander
Compact Tubular Strander
✅ Uniform Stranding: Ensures consistent wire distribution and lay length, improving cable performance.
✅ High Efficiency: Faster production rates compared to manual methods.
✅ Versatility: Can handle various wire sizes and configurations.
✅ Improved Cable Flexibility: Produces cables with high flexibility, ideal for dynamic applications.
✅ Durability: Enhanced mechanical strength due to precise stranding.
✅ Automation Options: Reduces labor costs and human error in fully automatic models.