FL
Fiber laser cells
For buyers balancing cut speed, electrical demand, reflective metals, and automation readiness.
View fiber systems
Sheet-metal process engineering
Amada laser cutting systems, specified around the work mix
Compare fiber and CO2 process routes against material, thickness, sheet format, edge requirement, takt time, and downstream bending. Every proposal starts with a documented part set rather than a headline wattage.
01
Fiber cutting
Thin-to-medium gauge throughput, reflective-material evaluation, and energy density.
02CO2 process
Application-led selection where material response and established production practice support it.
03Beam control
Focus position, assist-gas delivery, pierce sequence, and cut-condition governance.
04Automation
Load, unload, storage, nesting, and remnant handling analyzed as one flow.
Grouped specification logic
Read the process window before comparing machines
Published model data must be checked against the current regional datasheet. These grouped criteria show which values belong in a production acceptance plan.
Part envelope
Sheet formatDefine X × Y and usable clamp-free area
Material setGrade, coating, reflectivity, and thickness range
GeometrySmall-hole ratio, contour density, and common-line opportunity
Cut condition
Laser sourceFiber or CO2, selected by process evidence
Assist gasOxygen, nitrogen, or air with purity and pressure recorded
Quality checkKerf, dross, burr, taper, heat tint, and edge roughness
Cell performance
Cycle basisCut + pierce + traverse + material exchange
AutomationBuffer capacity, sheet separation, and unload constraints
AcceptanceNamed test parts, revision control, and measured result log
Four production routes
System families for different sheet-metal constraints
The right route depends on part economics and process stability, not a single maximum-power value.
CO₂
CO2 laser cells
For established applications where material response, edge expectation, and installed practice support the route.
Review CO2 systemsAU
Material automation
For mixed schedules that require load/unload timing, storage logic, nesting, and remnant control.
Map the cell flowQC
Process verification
For controlled trials covering pierce behavior, corner quality, heat input, gas consumption, and repeatability.
See verification methodDocumentation checkpoints
Compliance belongs to the delivered configuration
Declarations, guarding, interlocks, extraction, training, and local installation responsibilities must be confirmed for the selected machine and destination.
Quality management
Configuration review
Laser safety file
Acceptance recordEngineering questions
Questions to settle before a laser-capacity decision
Process route
No. Power can shorten segments of the cut cycle, but piercing, traverse, exchange time, gas use, material handling, and downstream deburring can dominate. Compare a representative nest with a declared test condition.
Compare them when the material mix, edge requirement, legacy programming, maintenance model, and installed utilities leave more than one viable route. The result may differ between thin reflective sheet and thicker plate.
Acceptance and operations
Use controlled drawings, named material heats or grades, measured sheet thickness, stated gas purity and pressure, approved cut conditions, and defined inspection points. Record cycle time separately from material exchange.
Common boundaries include sheet separation, unstable blanks, unload collisions, remnant geometry, buffer capacity, and the mismatch between cutting speed and downstream bending or sorting. A cell model must include these constraints.
Start with the part set
Turn drawings, material grades, and takt targets into a testable brief
Share representative DXF files, annual mix, sheet formats, edge criteria, and planned automation. The response can then identify open assumptions and an acceptance path.