SF-BeamMaster 3D 5-Axis H & I Beam Laser Cutting Machine for Structural Steel Fabrication

Structural steel laser solution Overview SF-BeamMaster 3D 5-Axis H & I Beam Laser Cutting Machine for Structural Steel Fabrication SF-BeamMaster is a configurable 3D five-axis fiber laser cutting system for H-beams, I-beams and structural profiles. It combines contour scanning, bevel cutting, bolt-hole processing, pass-through holes, cut-off, slotting and automatic marking in one digital workflow. Built for structural-steel fabricators that want to replace multiple plasma, drilling, carbon-arc gouging, grinding and manual-marking steps with one accurate, software-driven machine. Best For Structural-steel factories processing H-beams, I-beams, welded profiles and related sections. Beam preparation involving web or flange cutting, bevels, bolt holes, lifting holes, slots and pass-through holes. Projects that use Tekla drawings and need automatic part identification, welding-position marking and nesting. Manufacturers seeking to reduce handling, drilling, marking, grinding, labor and floor-space requirements. Choose Your Machine Configuration Layout Best Fit Key Advantages Gantry Type Mixed H/I beam and flat-sheet processing Processes beams and plane sheet; relatively compact footprint; dual workstations can be configured. Roller Conveyor Type Dedicated, higher-automation beam production Specialized for H/I beams; optional automatic loading and unloading; conveyor length and material flow are engineered for the project. Core Processing Capabilities 3D five-axis cutting: straight cuts and bevel preparation on webs, flanges and profile ends. Bolt and lifting holes: high-speed laser processing with less heat input than plasma and no separate drilling station for suitable jobs. Pass-through holes: supports structural detailing that would otherwise require handheld cutting or carbon-arc gouging. Automatic marking: transfers part names and welding positions from the digital model to the workpiece. Contour compensation: scans real beam geometry before cutting and compensates for flange, web and loading deviations. Loop nesting: improves profile utilization and supports practical splice-position rules for structural fabrication. Key Technologies BCW400B Contour Vision Scanner High-speed contour scanning models the actual beam before processing. Measurement data is sent to the cutting system for real-time path compensation, helping manage web eccentricity, flange-angle variation, waviness, thermal deformation and loading-position error. BLT4X1T 3D Five-Axis Cutting Head A profile-processing head with closed-loop monitoring, collimation and focusing, built-in amplification, protective-lens temperature monitoring, cutting-gas pressure monitoring, anti-collision protection, pan-seal failure detection, beveling and endpoint optimization. RTCP Visual Calibration One-click visual calibration simplifies data acquisition and reduces dependence on repeated mechanical adjustment after a mode change or service operation. Tekla-Connected Workflow Part information and welding positions can be imported from Tekla-based project data. TubesT nesting software prepares the cutting sequence and supports automatic marking and material optimization. Technical Specification Parameter SF-BeamMaster Machine Type Custom 3D 5-axis H & I beam laser cutting machine Available Layouts Gantry type or roller conveyor type Supported Workpieces H-beams, I-beams and compatible structural profiles; flat sheet capability available with gantry configuration Processes Cut-off, straight cutting, web/flange beveling, slots, bolt holes, lifting holes, pass-through holes and marking Axis Configuration 3D five-axis Drawing/Data Workflow Customized for Tekla-based project data Nesting Software TubesT Contour Scanner BCW400B Cutting Head BLT4X1T profile-processing head Loading/Unloading Manual, assisted or automatic according to the selected machine configuration Laser Power Selected according to material grade, wall thickness, bevel requirement and production target Working Length / Profile Range Engineered to the customer's beam range and factory layout Electrical Supply Configured for destination-country voltage and frequency SF-BeamMaster is a project-engineered machine. Final power, beam range, working length, machine footprint, extraction, guarding and optional material-handling automation are confirmed in the technical proposal before ordering. Main Configuration System Configuration Purpose Cutting Head BLT4X1T 3D five-axis head Profile cutting, beveling, monitoring, anti-collision protection and endpoint optimization Vision System BCW400B contour scanner Measures actual profile geometry and enables path compensation Control & Nesting Beam cutting system with TubesT nesting Toolpath generation, loop nesting, compensation and production control Data Integration Tekla-based drawing workflow Imports part data, names and welding positions for automated processing Electrical Cabinet Independent European-style cabinet Strong/weak-current separation, fuse protection, safety relay, plug connections and touch protection Machine Structure Precision-machined, stress-relieved welded structure Supports long-term geometry and repeatable cutting accuracy Gas Control Three-path gas inlet with filtration and pressure detection Panel pressure adjustment plus low-pressure alarm and cutting interlock Loading System Project-specific beam support and handling Gantry workstation or automated roller-conveyor logistics Safety Guarding and interlocks engineered to the machine layout Protects personnel around the cutting and material-handling zones Why It Improves Beam Production Combines nesting, cutting, beveling, drilling-replacement applications, marking and selected finishing steps into one connected workflow. Laser kerf in the referenced 12 mm mild-steel comparison was approximately 0.5-1.1 mm versus 2-4 mm for plasma. A referenced production case reduced direct staffing from 10 people across traditional steps to 5 people on the laser workflow. A referenced layout comparison reduced the processing footprint from approximately 96 m² to 36 m². In a 576-part nesting example, the optimized plan used 371 profiles instead of 381 and achieved more than 90% utilization. In a January 2023 customer case, processed volume increased from 541.92 tons to 758.68 tons over a comparable production period. Performance examples are application-specific and are not guaranteed results. Actual output depends on beam geometry, material, thickness, power, process settings, loading method and production management. Before Ordering Provide beam type, material grade, flange/web dimensions, wall thickness and maximum length. Provide required processes and bevel types, hole tolerances, production volume and sample drawings or Tekla/NC files. Confirm preferred layout, available floor space, material flow direction and automation level. Confirm destination voltage, cutting-gas plan, extraction requirements, local safety rules and installation conditions. Final suitability, configuration, price, lead time, shipping plan and commissioning scope are confirmed through a project quotation. Related reference: After-sale Service Related reference: Shipping Info Related reference: Contact SkyFire FAQ Should I choose the gantry or roller-conveyor version? Choose the gantry configuration when you need mixed beam and flat-sheet capability or a relatively compact arrangement. Choose the roller-conveyor configuration for dedicated beam processing with higher material-handling automation. Final selection depends on profile range, takt time and factory logistics. Can SF-BeamMaster compensate for deformed H-beams? The BCW400B contour scanner measures the actual profile and sends data to the cutting system for path compensation. The achievable result still depends on the type and degree of deformation and must be confirmed against sample material. Can it import Tekla data? Yes. The solution supports a Tekla-oriented workflow for part information, names and welding positions, with TubesT used for nesting and cutting preparation. File-format and workflow details are confirmed during project engineering. What laser power and working length are available? Both are selected for the customer's material, thickness, bevel requirement, beam size, production target and site layout. Submit representative drawings and production requirements for an engineered configuration. Does it support automatic loading and unloading? Automatic loading and unloading can be added to the roller-conveyor machine. Assisted handling and dual-workstation arrangements are also available depending on the selected configuration.