Enclosed Fiber Laser Cutting Cell · High-Throughput 5×10 Platform
Umprotech Enclosed Fiber Laser Cutter – 6 kW · 5×10 ft · FSCUT / CypCut
A fully enclosed 6 kW fiber laser cutting system on a standard
5×10 ft (60×120") bed, with FSCUT controller and CypCut CAM/nesting. Built for US job shops,
OEMs, and fabrication cells that require high throughput, operator safety, and consistent cut quality
on mixed-metal 5×10 sheets—without compromising on diagnostics, process control, or shop-floor usability.
Laser power: 6 kW fiber (Raycus / IPG) ·
Bed size: 5×10 ft (60×120") ·
Controller: FSCUT with CypCut CAM / nesting
Enclosure: Full-cover, Class 1 ·
Head: Auto-focus fiber cutting head ·
Assist gases: N2 / O2 / air (configuration dependent)
- 6 kW fiber power for fast cutting and robust process windows on 5×10 sheets
- Standard 60×120" bed for efficient nesting, stock handling, and kit-based workflows
- Full-cover, Class 1 enclosure with integrated fume extraction and industrial chiller
- FSCUT controller with CypCut for advanced nesting, simulation, and diagnostics
- Auto-focus head and mixed-gas capability for multi-material production
Key advantages for US buyers
The Umprotech 6 kW, 5×10 ft enclosed fiber laser is positioned as a
high-throughput full-sheet production cell for US shops that want to combine the
cutting speed and headroom of 6 kW power with the material efficiency of standard 5×10 stock.
It’s built around a proven FSCUT/CypCut stack and industrial-grade utilities for stable, repeatable performance.
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6 kW fiber laser (Raycus / IPG): offers high linear speeds, strong piercing performance, and
robust cutting conditions on a range of thicknesses in stainless, carbon steel, aluminum, and brass. Ideal for
shops that routinely handle mid-thick and heavier gauges, not just thin sheet.
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Standard 5×10 ft (60×120") bed: matches a common US sheet format, allowing you to use standard
stock, nesting larger parts or higher part counts per sheet. This improves material utilization and reduces
skeleton handling versus smaller platforms.
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Full-cover, Class 1 enclosure: light-tight, interlocked housing that meets typical US safety
expectations. Operators can run the machine in busy production environments while containing process light and
fumes inside the cutting chamber.
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Integrated fume extraction & industrial chiller: included as standard, so you receive a
complete cutting cell rather than a bare cutting platform. Proper cooling and fume capture help protect optics,
electronics, and the broader shop environment.
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Auto-focus cutting head: tracks thickness changes and sheet warp across the full 5×10 bed,
maintaining focus, kerf width, and edge consistency on mixed-gauge jobs, remnants, and non-perfect stock.
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FSCUT controller with CypCut CAM: widely adopted industrial control environment with intelligent
nesting, toolpath optimization, micro-joints, corner smoothing, and simulation for predictable cycle times and
reduced scrap.
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Mixed-metal production: with the right assist gas strategy, the cell supports day-to-day
switching between carbon steel, stainless, aluminum, and brass. CypCut libraries and process parameters help
standardize results across shifts.
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Integration-ready: designed to sit at the core of a fabrication cell, feeding press brakes,
panel benders, hardware insertion, and welding stations with 5×10-based nests and kits.
Key technical specifications
The Umprotech 6 kW 5×10 enclosed fiber laser is delivered as a turnkey cutting cell. The fiber
source, motion platform, auto-focus head, control, enclosure, extraction, and chiller are configured to work
together as an integrated system once connected to your power, assist gas, and exhaust infrastructure.
Laser power & source
Laser power: 6 kW fiber (Raycus or IPG options)
6 kW provides:
- High-speed cutting across thin and mid-thickness ranges in steel, stainless, and aluminum
- Improved cutting performance and pierce behavior on heavier gauges compared to 3 kW systems
- Stronger process windows for high-mix work where part geometry and thickness vary
Raycus and IPG are established industrial fiber laser vendors, giving you access to proven power delivery and
service networks commonly used in production environments.
Working envelope
Bed size / stroke: 5×10 ft (60×120") nominal working area
The 5×10 ft platform is optimized for:
- Full-sheet nesting for panels, brackets, and kits
- Large components that exceed 4×8 dimensions
- Efficient material utilization with fewer offcuts and skeletons
The machine can also process partial sheets and remnants, while still benefiting from CypCut’s nesting and
path-optimization tools.
Controller & CAM / nesting
Control: FSCUT industrial motion and laser control
Software: CypCut CAM / nesting suite
Together, FSCUT and CypCut provide a complete flat-sheet programming environment:
- Import of DXF/DWG/STEP files from your CAD software
- Automatic and interactive nesting on full 5×10 sheets
- Lead-in/lead-out strategies, micro joints, and corner smoothing
- Common-line cutting, bridging, and sequence control to reduce pierces and cycle time
- Simulation and graphical path views for program verification before cutting
- Diagnostic tools and alarms linked to motion, laser, and IO events
The control stack is widely used in industrial laser systems, making it easier to hire operators and find
external support when needed.
Cutting head & auto-focus
Cutting head: Auto-focus fiber cutting head with capacitive height sensing
The auto-focus head:
- Automatically adjusts focus for different material thicknesses and types
- Maintains consistent stand-off over warped or imperfect 5×10 sheets
- Supports stable kerf width, pierce quality, and edge appearance across the bed
Parameter libraries tie focus position, gas pressures, and speeds to specific material/thickness setups,
reducing operator guesswork and improving repeatability.
Enclosure & safety
Enclosure: Full-cover, Class 1 light-tight housing with interlocks
The enclosure is engineered for shared production environments:
- Interlocked access doors that stop cutting when opened
- Viewing windows for monitoring without open-beam exposure
- Internal lighting and clear access for loading, unloading, and cleaning
This design simplifies risk assessments and often reduces the need for broad “laser hazard zones” in the
surrounding shop area.
Utilities, chiller & fume extraction
Included: industrial chiller and integrated fume extraction
The chiller maintains stable temperatures for:
- Laser source cooling circuits
- Optics and cutting head cooling
The extraction system captures smoke and particulates at the cutting area and routes them to your filtration
or exhaust system, helping keep optics cleaner and improving overall shop air quality.
Assist gases & strategy
Assist gases: Nitrogen (N2), Oxygen (O2), and air (configuration dependent)
Typical usage patterns include:
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Oxygen: high-speed cutting of mild steel with oxidized edges
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Nitrogen: bright, oxide-free edges for stainless and aluminum
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Dry air: cost-sensitive cutting where a light oxide tint is acceptable
We can recommend cylinder, bulk, or compressor-based solutions based on duty cycle, thickness ranges, and
required edge quality.
Motion system & structure
Motion: servo-driven gantry with precision linear guidance
The motion platform is tuned for:
- Smooth motion on long 5×10 paths and fine features
- Accurate feature positioning across the full working envelope
- Continuous-duty performance in production environments
Servo drives and mechanical stiffness help maintain cut quality over long runs and multiple shifts.
Electrical & footprint (high level)
Detailed connection, footprint, and loading data are provided during the specification phase. In general, the
system is designed for:
- Standard US 3-phase industrial power supplies
- Installation in fabrication bays, laser rooms, or integrated cells
- Rigging using typical material-handling and lift equipment
Pre-installation planning covers access paths, clearances, and anchoring requirements to avoid surprises
during delivery and commissioning.
Actual cutting capacity, tolerances, and throughput depend on material grade, assist gas, cut parameters, nesting
strategy, and quality targets. For critical parts, we recommend qualification via sample cutting and documented
parameter windows before committing final production tolerances.
Capabilities & typical applications
The 6 kW, 5×10 ft Umprotech enclosed fiber laser is frequently deployed as a
primary production laser in fabrication shops and OEM lines, or as a dedicated high-throughput
cell feeding downstream bending, welding, and assembly operations.
Brackets, frames & structural components
Brackets, gussets, supports, and frame elements in steel, stainless, and aluminum. High repeatability on hole
patterns and profiles supports efficient jigging, fixturing, and welding.
Panels, cabinets & machine guards
Large panels, guards, covers, and cabinet sides cut from full 5×10 sheets. Accurate features and bend lines
support consistent forming and alignment in assembly.
OEM kits & assemblies
Kit-based nests for OEM assemblies, with parts organized on 5×10 sheets. Programs and parameter sets can be
stored in the control to standardize cycle times and quality across repeat orders.
HVAC, ducting & building hardware
Duct panels, plenums, brackets, rails, and mounting hardware for HVAC and building systems, where full-sheet
nests and 6 kW speed help keep up with production demand.
Signage & architectural elements
Letters, logos, perforated panels, and decorative elements cut in steel, stainless, and aluminum, with
parameter sets tuned for cosmetic finish and downstream surface treatments.
Contract manufacturing & job-shop work
High-mix, high-quality cutting for contract manufacturing, where the ability to handle different materials,
thicknesses, and geometries on 5×10 stock is essential for competitiveness.
Prototyping & pilot production
Pilot runs and prototypes produced on the same platform as steady-state production, reducing risk when moving
programs from engineering validation into regular job schedules.
Integration into automated lines
Positioned as the cutting front-end of a larger automated line, feeding robotic or semi-automated bending and
welding systems with predictable part quality and timing.
In many facilities, the 6 kW 5×10 machine becomes the
“throughput anchor” of the laser department—handling the bulk of sheet production while smaller
or specialty lasers focus on prototyping, thick plate, or niche materials.
Configurations & options
The Umprotech 6 kW 5×10 enclosed fiber laser is supplied as a
ready-to-run system. Core elements—fiber source, auto-focus head, FSCUT control, full enclosure,
extraction, and chiller—are standard. Configuration choices let you align the system with your material strategy,
gas infrastructure, and internal equipment standards.
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Fiber source options: 6 kW Raycus or 6 kW IPG. Select based on your installed base, preferred
service partners, or corporate standards for fiber lasers.
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Assist gas configuration: support for N2, O2, and air
(configuration dependent). We can help size regulators, piping, and storage for your duty cycle, thickness
range, and edge-quality requirements.
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Control stack: FSCUT controller with CypCut CAM/nesting included as standard—no additional
flat-sheet CAM purchase required for core programming, nesting, and simulation.
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Auto-focus cutting head: standard configuration, with parameter libraries pre-structured by
material and thickness to simplify daily use and training.
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Full-cover enclosure & extraction: included to reduce engineering effort around guarding
and fume capture, and to support straightforward safety approvals.
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Industrial chiller: sized for 6 kW duty, providing stable thermal management for both the
laser source and optics under sustained production loads.
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Network & workflow integration: support for network-based file transfer and shared job
folders so that CAD/ERP-driven workflows can connect into CypCut with minimal friction.
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Automation & integration options: for shops planning future automation, we can discuss
concepts such as load/unload systems, material towers, or custom fixturing built around the 5×10 platform.
For special cases—unique materials, specific OEM standards, or custom cell layouts—our team can provide
application-driven configuration recommendations based on your part mix and production volume.
Implementation & support for US shops
We work closely with US job shops, OEMs, and integrators to ensure that the 6 kW 5×10 enclosed fiber laser is
specified, installed, and supported around real parts, real materials, and real workflows.
The objective is predictable uptime, not just impressive catalog numbers.
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Pre-installation planning: review of power capacity, floor space, rigging routes, exhaust
connections, and gas supply (N2/O2/air), with a focus on minimizing surprises and change
orders at installation.
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Part & material review: analysis of representative parts, thickness distributions, and
expected volumes to confirm that a 6 kW 5×10 configuration is the right fit and to estimate cycle times.
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CypCut workflow setup: support for nesting rules, layer conventions, micro-joint strategies,
and parameter libraries, aligned with your preferred engineering and fabrication practices.
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Operator & maintenance training: onsite or remote training covering safe operation,
startup/shutdown, basic troubleshooting, and routine maintenance tasks for optics, nozzles, filters, and
mechanical components.
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Ongoing process support: assistance with new materials, cut-quality tuning, cycle-time
optimization, and integration questions as your job mix changes or volumes grow.
Next step: send us representative part files (DXF/STEP/PDF), along with your material and
thickness ranges. We’ll confirm fit, estimate cycle times, and recommend a 6 kW 5×10 configuration and assist-gas
strategy aligned with your production goals and shop constraints.
Technical FAQ – 6 kW · 5×10 ft enclosed fiber laser
How does a 6 kW 5×10 system compare to a 3 kW or 12 kW machine?
A 6 kW 5×10 cell sits between mid-power and ultra-high-power solutions:
- Significantly faster and more capable on thicker material than 3 kW systems
- Lower capital and operating cost than 10–12 kW full-sheet platforms
- Enough headroom for mixed material and thickness ranges without oversizing utilities
For many US shops, 6 kW provides a strong balance between throughput, flexibility, and operating cost for
standard 5×10 sheet work.
What thickness range can we realistically process on a 6 kW 5×10 machine?
6 kW provides a broad, practical window for thin, mid-gauge, and many heavier sections.
However, the exact range depends on:
- Material type (mild steel, high-strength steel, stainless, aluminum, brass)
- Assist gas strategy (N2 vs O2 vs air) and available pressure
- Edge-quality targets and downstream operations (welding, painting, finishing)
- Required cycle times and batch sizes
We recommend validating key material/thickness combinations via sample cuts and parameter tuning before
finalizing tolerance and throughput commitments.
Why choose a 5×10 ft bed instead of 4×8 or smaller-format platforms?
A 5×10 bed is ideal when you want:
- Higher parts-per-sheet and better nesting flexibility compared to 4×8
- Capacity for larger panels and guards that won’t fit on smaller tables
- Alignment with a standard 5×10 supply chain that you already use
If you primarily run 60×120" material or larger parts, the 5×10 format often reduces material waste and
skeleton handling versus smaller platforms.
Is CypCut sufficient for programming, or do we need a separate CAM system?
For flat-sheet laser cutting, CypCut is typically the primary CAM and nesting environment.
It provides:
- DXF/DWG/STEP import from your CAD tools
- Full-sheet nesting, micro joints, lead-ins, and sequence control
- Simulation and verification tools before cutting
Many facilities still use external systems for quoting, scheduling, or ERP integration, but day-to-day
cutting programs on the 6 kW 5×10 machine are usually created and tuned in CypCut.
How difficult is it to train operators on FSCUT + CypCut for a 6 kW platform?
Operators with CNC, CAD, or fabrication experience typically adapt quickly. Training focuses on:
- Safe operation, including interlocks and daily safety checks
- Loading nests, selecting materials, and managing parameter sets
- Responding to alarms and interpreting diagnostic messages
Parameter libraries, graphical nests, and simulation help flatten the learning curve and maintain
consistency between shifts.
What utilities and infrastructure are required before we install the machine?
Before shipment, you receive a detailed pre-install checklist. In general, you should plan for:
- 3-phase electrical service with appropriate voltage and amperage
- Assist gas storage and regulation sized for your duty cycle and gas strategy
- Exhaust or filtration hookups for the integrated fume extraction system
- Floor space, rigging paths, and height clearances suitable for a 5×10 enclosed cell
Addressing these items early allows installation and commissioning to focus on bringing your jobs into
production rather than handling last-minute facility changes.
What does routine maintenance look like on a 6 kW 5×10 fiber laser cell?
Routine maintenance is centered around optics, gas systems, and mechanical checks. Typical tasks include:
- Inspecting and cleaning/replacing cutting nozzles and protective windows
- Checking assist gas filters, hoses, and fittings for leaks or restrictions
- Monitoring chiller fluid levels, temperature setpoints, and alarms
- Cleaning the cutting area and visually inspecting the motion system
We provide maintenance schedules and procedures, and training includes how to safely perform these tasks on
a 6 kW platform.
How does the fully enclosed Class 1 design impact our safety program and layout?
A fully enclosed Class 1 system simplifies many aspects of laser safety:
- The laser beam is contained during normal operation; cutting stops when doors are open
- Hazard zones can be more compact and clearly defined around the enclosure
- Operators usually don’t require broad-area laser eyewear in the surrounding area
This often makes it easier to place the machine in mixed-production environments near forming, welding,
and assembly equipment.
Can the 6 kW 5×10 cell integrate with our existing CAD/ERP workflow?
Yes. Most integrations follow a straightforward pattern:
- Engineering manages geometry and part data in your existing CAD system
- Flat patterns are exported as DXF/DWG/STEP tied to part numbers in ERP/MRP
- CypCut imports these files for nesting, parameter assignment, and simulation
We can help define shared folders, naming conventions, and job-release steps so that planning, engineering,
and the laser cell stay aligned.
How do we determine if a 6 kW 5×10 configuration is the right fit for our operation?
The best approach is to evaluate your real work rather than generic charts. Typically we:
- Review representative part drawings, materials, and thickness distributions
- Analyze yearly volumes and job-mix (high-mix vs. long-run, thin vs. thick)
- Estimate cycle times and utilization on a 6 kW 5×10 platform using your nests
From there, we can compare this configuration to alternatives—such as 3 kW or 12 kW, or different table
sizes—and recommend a setup aligned with your constraints, growth plans, and return-on-investment targets.
Still have technical questions? Share your part drawings, material grades, and expected quantities.
We’ll provide a targeted assessment and configuration recommendation for your 6 kW 5×10 enclosed fiber laser cell.
