Automated Assembly Cell

QUANT STEELFAB 360: Robotic Beam Assembly and Welding with Integrated Rotation

QUANT STEELFAB 360 is a production-ready robotic system with the same model-driven assembly and welding workflow as QUANT STEELFAB. The difference is the transition between beam setups. After finishing one setup, the operator selects the next setup in the software; the integrated rotator moves the beam to the required angle. This removes crane-assisted turning between setups. Loading, unloading, production supervision, and application-specific checks remain part of the workshop process.

Capabilities:

  • Tekla Job Simulation
  • Scanner-Guided Assembly
  • TouchSense Before Welding
  • Operator-Initiated Beam Rotation
QUANT STEELFAB 360 robotic assembly and welding system
How It Works

The Process

The same model-driven assembly and welding workflow in both systems. The difference is how the beam moves to its next setup.

  1. 01

    Select & Simulate

    A Tekla engineer selects beam assemblies in the Quant plugin. Quant software simulates the job and reports the component count and estimated assembly and welding time. These are simulation estimates, not guaranteed production cycle times.

  2. 02

    Measure & Check

    Scanner measures the beam position and dimensions and matches its point cloud to the 3D model. Once at the start of the job, it scans the parts tables, checks outlines and thickness, and reports missing required parts or thickness mismatches. Unrelated parts are ignored.

  3. 03

    Review & Release

    The software calculates a transformation of the measured beam and part coordinates. The operator reviews the green, yellow, and red match overlay and selects Continue to release the transformed coordinates to the assembly robot. The colors indicate degree of match, not universal pass/fail thresholds.

  4. 04

    Assemble & Weld

    The robots perform fit-up, tack welding, and finish welding for supported components. TouchSense locates the weld before the welding pass. The current configuration does not continuously track the seam during welding or correct the weld path from a laser scan.

Operators review the match and choose whether to continue; they do not manually edit component placement. A supervisor or production engineer reviews exceptions that require an engineering decision. Supported versions and export requirements are specified during project engineering.

Why QUANT STEELFAB 360?

Key Advantages

Redefining efficiency in structural steel fabrication

Model-driven tasks

No-Code Operation

The software prepares tasks for supported beams without manually teaching every new beam. Engineers and operators still review job data, weld settings, and exceptions.

Adaptive Logic

Measured Assembly Coordinates

The software calculates assembly coordinate transformations from measured geometry. The operator reviews the match and selects Continue before the coordinates are released.

All-in-One

Integrated Setup Changes

The operator initiates the next setup and the rotator repositions the beam. The crane is not needed for turning between setups; workshop handling and supervision remain necessary.

Visual Showcase

QUANT STEELFAB 360 in Action

Robotic beam assembly, welding and integrated rotation with QUANT STEELFAB 360 in Kazakhstan

QUANT STEELFAB 360 Operation
Welding Process
Detail 1
Detail 2
Robotic Arm

Technical specificationsBeam profiles

The standard supported beam length is 3,000–12,000 mm for the listed profile types. Width and height refer to the profile cross-section.

I- and H-beams

Standard length
3,000–12,000 mm
Width
160–400 mm
Height
160–650 mm

U-channels

Standard length
3,000–12,000 mm
Width
180–400 mm
Height
100–300 mm

Square and rectangular hollow sections

Standard length
3,000–12,000 mm
Width
100–300 mm
Height
100–400 mm
Extended beam length — project option
Up to 14,000 mm with extended tracks, available for either model.
Maximum beam mass
6 tonnes, including the STEELFAB 360 rotator configuration.

Added parts

Supported added-part dimensions are 120–700 mm long, 80–500 mm wide and 4–40 mm thick.

  • Flat plates
  • L profile
  • U profiles
  • Square tubes

Suitability for a particular added part depends on its shape, material, thickness and selected gripper.

Cell footprint

Both models have the same footprint, including protective fencing.

Length × width × height · mm

Standard configuration
21,000 × 6,700 × 3,000
Extended tracks · beams up to 14 m
23,000 × 6,700 × 3,000

Additional clearance for beam loading and unloading, crane movement and service access is determined for the customer's site.

Welding scope

The system supports corner and t-joint configurations with horizontal and vertical welds.

Fillet weld leg size

Single pass
3–6 mm
Multiple passes
8–14 mm

Weld access and the applicable procedure are reviewed for each part.

Operator-Initiated Automatic Beam Repositioning

The operator selects Next setup in the software. The integrated rotator then moves the beam to the angle required for that setup. This replaces crane-assisted turning between setups; loading, unloading, supervision, and application checks remain part of the workshop process.

Watch It In Action

Video Demonstration

See the recorded workflow, then discuss representative beam jobs with our engineering team.