Swift-Cut Launches Swift-Laser Pro Fiber Laser

The Swift-Laser Pro’s initial 3-kW and 6-kW configurations may suit recurring 5-by-10-foot sheet work when representative cuts meet part requirements and manual loading and unloading fit the production pace.

The launch configuration and timing

Swift-Cut launched its first CNC fiber laser cutting system, the Swift-Laser Pro, at FABTECH 2026 on October 21. The initial 3-kW and 6-kW configurations have a 5-by-10-foot cutting area and a manual pull-out cutting deck. A 12-kW configuration with an automatic pallet changer is planned for Q1 2027; it is a future configuration, not part of the initial setup.

With the initial deck, an operator pulls it out to load a sheet, returns it to the enclosure for cutting, then pulls it out again to remove the cut parts and remaining skeleton. That handling method belongs in the production assessment alongside the cutting area and power options.

Guided setup and flat-sheet work

The touchscreen workflow lets an operator select material, thickness, and assist gas so the machine can apply pre-programmed cutting parameters. The listed materials include steel, stainless steel, aluminum, galvanized steel, and brass. The CNC controller also includes automatic sheet-edge detection, part sorting, and toolpath generation. These are useful features to evaluate for recurring profiles, contours, and holes, but they do not establish that a particular grade, thickness, edge requirement, or part nest will meet a shop’s production needs.

Test representative drawings or parts using the intended material, thickness, and assist-gas conditions. Include tight contours, holes, and any edges that affect fit-up or later operations. Judge cut quality on the actual application rather than treating a power rating or preset as proof of the finished result.

Manual handling shapes the operating fit

The pull-out deck makes loading and unloading an explicit part of the cycle on the initial configurations. Evaluate sheet count, batch size, staffing, and the pace required over a shift; cutting time alone does not show whether the full operation can meet that pace. The planned automatic-pallet 12-kW configuration should not be assumed to be available with the initial 3-kW or 6-kW setup.

Consider the work after the cut as well. Nesting, skeleton removal, part sorting, deburring, and movement to bending affect how quickly cut parts are ready for the next operation. A sample cut can establish whether a part meets the required cut standard; the complete loading-to-downstream flow determines whether the process fits the production plan.

Match the machine to the actual work

Bring representative part drawings or samples, material grades and thicknesses, sheet dimensions, edge requirements, and typical batch volumes into the evaluation. Confirm which presets and assist-gas conditions apply, then review sample cuts and the time needed to load, unload, sort, and move parts onward. A current written quotation should clarify the exact configuration, installation scope, delivery timing, and support terms; the announced configuration alone does not establish the installed cost or expected result for a particular shop.

I’m John Perry, Regional Sales Executive covering Wisconsin, Michigan, Illinois, and the surrounding Midwest. My laser-cutting work includes fiber-laser applications, cut quality, nesting, sorting, and material flow. Bring representative parts or drawings, material grades and thicknesses, production volumes, edge requirements, and the steps after cutting; I can help assess whether the Swift-Laser Pro configuration and its handling approach fit the work and which equipment options merit further review with Mac-Tech.