6 Axis 1800mm ArmSpan MlG Industrial Welding Robot

6 Axis 1800mm ArmSpan MlG Industrial Welding Robot

The welding robot with 1945mm reach, 6kg payload and ±0.08mm repeatability for consistent automated welding.
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6 Axis 1800mm ArmSpan MlG Industrial Welding Robot

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Product Description

Name

Welding robot


Range


of


motion

basic axis

J1

±175°

Max

Speed

basic axis

J1

172.1°/S

Type

Vertical joint 6 degrees

J2

+85°-150°

J2

138.8°/S

The main purpose

Weld

J3

±80°

J3

259.3°/S

Specification

BR10iA-18


arm

axis

J4

±150°


arm

axis

J4

294.1°/S

Max load weight

6KG

J5

+130°-105°

J5

294.1°/S

Position repeatability

±0.08mm

J6

±220°

J6

426.7°/S

Action range

Attached drawing

Maximum reach

1945mm

Installation


Battery capacity

3KVA

Conditions

0-45℃,20-80%RH(no condensation)

Body weight

200KG

Protection class

Equivalent to IP65

Scope of work and installation diagram

1787646087950790362149502976.png@!w400


Detailed Product Description

Built for automated arc welding tasks that demand consistency and controlled movement, this robotic welding solution combines a six-axis structure with stable positioning accuracy and broad working flexibility. For manufacturers looking to improve weld uniformity, reduce operator fatigue, and support repeatable production schedules, the 6 Axis 1800mm ArmSpan MlG Industrial Welding Robot offers a practical balance of reach, motion control, and durability.

Its vertical articulated design allows the robot to approach complex weld seams from multiple angles. That matters in real production environments where fixtures, workpiece geometry, and line layout often limit access. With a maximum reach of 1945 mm and coordinated motion across J1 to J6, the robot can cover a generous workspace while maintaining the precision needed for repeated weld paths. The ±0.08 mm repeatability supports stable torch positioning, which is especially important when weld quality must remain consistent across batches.

Why This Robot Fits Modern Welding Lines

In MIG welding applications, productivity depends not only on speed, but also on reliable path tracking and predictable operation over long shifts. This equipment is designed with that industrial reality in mind. The six-axis movement gives integrators and factory users more freedom to handle parts with varying shapes, including frames, brackets, structural assemblies, and fabricated metal components. A 6 kg payload makes it suitable for carrying standard welding tools and related end-of-arm equipment within its rated range.

  • Six-axis articulation for flexible torch access

  • ±0.08 mm repeatability for dependable path consistency

  • 1945 mm maximum reach for a wider operating envelope

  • Equivalent IP65 protection for demanding workshop conditions

  • Operating environment of 0-45℃ and 20-80%RH without condensation


Motion Performance and Working Efficiency

Each axis is configured for practical welding movement rather than theoretical complexity. The J1 axis offers ±175° rotation with a maximum speed of 172.1°/S, while J6 reaches ±220° and 426.7°/S for fast wrist reorientation. This combination helps the robot transition smoothly between weld points and maintain efficient cycle times during programmed routines. The arm axes, including J4 and J5, support torch angle adjustment around the workpiece, which is valuable for fillet welds, corner joints, and multi-sided fabrication tasks.

For production managers, these motion characteristics translate into better repeatability across parts, less dependence on manual rework, and stronger process control. For integrators, the defined motion ranges simplify cell planning and fixture placement. For operators and maintenance teams, the structured configuration makes the robot suitable for standardized deployment in dedicated welding stations.

Typical Application Scenarios

This robot is intended for welding-focused automation in industrial environments where repeatable motion and process stability are essential. It can be used in standalone robotic welding cells or integrated into broader fabrication lines.

  1. Metal fabrication workshops producing repeat parts

  2. Automotive and component subassembly welding

  3. Construction steel and structural part processing

  4. Machinery frame and bracket welding

  5. Batch manufacturing environments seeking consistent weld quality

products faq

A:

A welding robot is an automated system consisting of a robotic arm, welding power source, wire feeder, and control unit. It follows pre-programmed paths to position the welding torch and execute welds with high precision. The robot can perform various welding processes including MIG/MAG, TIG, and plasma welding, with motion controlled by a PLC or CNC system that ensures repeatable accuracy.

A:

Welding robots offer several key benefits:

Consistent quality – eliminates human error and fatigue
High productivity – operates continuously with minimal downtime
Labor savings – reduces dependence on skilled welders
Safety – removes operators from hazardous environments (fumes, heat, arc flash)
Precision – achieves repeatable accuracy within ±0.1mm

A:

Welding robots are highly versatile and can handle a wide range of workpieces, including:

Structural steel components (H-beams, columns, frames)
Pipe and tube assemblies
Pressure vessels and tanks
Automotive and machinery parts
Custom fabricated assemblies
The robot can be equipped with positioners, rotary tables, and tracking systems to accommodate complex geometries and large components.

A:

Modern welding robots feature user-friendly programming interfaces, including:

Teach pendant – operators guide the robot through the weld path, which is then stored as a program
Offline programming – allows programming from a computer without interrupting production
Intuitive software – simplifies parameter setting for speed, voltage, current, and weave patterns
Operators with basic welding knowledge can typically become proficient after short training.

A:

Routine maintenance includes:

Checking and replacing welding consumables (contact tips, nozzles, liners)
Inspecting cables, hoses, and connections for wear
Lubricating robotic arm joints and gearboxes
Cleaning protective glass and sensors
Updating software and backing up programs
Regular preventive maintenance schedules help ensure long-term reliability and minimize production downtime. Our service team provides comprehensive technical support and spare parts availability.