Eco-Grip Max Swan Neck for Parweld BZL 260-360A MIG Torches

The Eco-Grip Max Swan Neck is designed to deliver exceptional durability and performance for Parweld BZL 260-360A MIG Torches. Built for professional welders, this robust swan neck ensures optimal current transfer, heat resistance, and a secure fit, enabling seamless welding operations. Manufactured to the highest standards, it provides consistent results under demanding conditions, making it a must-have component for industrial and fabrication environments.
With enhanced ergonomic shaping and compatibility, the Eco-Grip Max Swan Neck helps reduce operator fatigue while improving torch control. Whether you’re working with medium- to high-amperage applications or frequent production cycles, this swan neck guarantees reliable conductivity and long-lasting integrity. Its compatibility with Parweld’s trusted BZL line makes it a go-to replacement that offers both affordability and professional-grade quality. Perfect for workshops, repair jobs, and manufacturing floors, this high-performance component will keep your torch operating at peak condition.
Key Features
Durable Design – Made with high-quality materials for prolonged use.
High Conductivity – Ensures stable and efficient current flow.
Heat Resistant – Handles high-temperature applications with ease.
Precision Fit – Compatible with Parweld BZL 260-360A torch models.
Ergonomic Grip – Reduces operator fatigue during extended use.
Detailed Specifications
Compatible Torches: Parweld BZL 260A, 360A models
Construction Material: Heavy-duty copper alloy
Neck Angle: 45° (standard swan neck bend)
Rated Current Capacity: 260–360 Amps
Thread Type: M10 connection
Cooling Type: Air-cooled
Product Benefits & Uses
Professional Reliability – Built for industrial and fabrication use.
Extended Lifespan – Reduces wear and torch downtime.
Improved Arc Control – Enables cleaner, more stable welds.
Perfect for MIG Welding Applications – Ideal for automotive, fabrication, and general welding jobs.
Quick Replacement – Easy installation with minimal disruption.