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HSG BEVEL-G6025V Sheet Bevel Laser

Overview

The HSG BEVEL-G6025V can consolidate cutting and edge preparation when the proposed configuration meets your recurring parts’ geometry, tolerances and finish requirements. Compare the preparation work actually removed and total processing time—not straight-cut speed or the number of machine functions alone.

  • Bevel cutting is optional on the broader GV platform. Specify the supplied capability and programming scope; the family’s published bevel capability up to ±50° does not confirm the required edge at every material thickness.
  • Use representative CAD files to check material grade, thickness, bevel section, any specified root face and required finish. Confirm the usable bevel-cutting envelope separately from the straight-cut format.
  • Compare complete jobs, including programming, positioning, sheet exchange and remaining cleanup or machining. Separate preparation may still suit occasional bevel work or edges the proposed laser cannot produce to specification.
  • Establish the supplied configuration, pricing and delivery terms in a U.S. proposal. The European showcase does not establish BEVEL-G6025V availability through Mac-Tech.

A bevel-capable sheet laser is worth evaluating when recurring blanks need angled edges that can meet the drawing without separate preparation. The purchase comparison should follow the finished blank’s geometry, edge condition and total processing time—not straight-cut speed alone.

The HSG BEVEL-G6025V combines flat-sheet cutting, beveling, countersinking and chamfering. The machine made its European showcase appearance at EuroBLECH in Hannover, Germany, on October 20–23, 2026, with the development covered in HSG’s October 23 announcement. For U.S. buyers, the application question is which recurring preparation work those functions can replace.

What the sheet-bevel platform offers

The GV bevel family includes G6025V and supports vertical cutting alongside published bevel capability up to ±50°, including V, X, K, Y and double-sided forms. These are family-level capabilities, not confirmation of the required edge at every material thickness.

Bevel cutting is optional on the broader GV platform, so the proposed configuration needs to specify that capability and its programming scope. The GV name alone is not enough. The family also includes a hydraulic dual-exchange platform; sheet exchange belongs in the production comparison alongside the cutting cycle.

Where integrated preparation earns its place

Recurring weldment blanks with specified angled joint edges are a useful starting point. When the contour and finished edge meet the drawing, integrated cutting can remove separate repositioning and beveling for that work. Appropriately designed laser-cut bevel features can also improve fit-up and welding access, but machine capability does not establish approval of a joint design.

Supported countersinks and chamfers extend the potential application beyond external weld-preparation edges. Evaluate each feature against its dimensions, tolerances and finish requirements rather than assuming that a laser-produced recess can replace every machined feature.

Geometry and programming determine fit

Bevel angle needs assessment alongside material grade, thickness and bevel form. Start with the actual edge section, including any specified root face—the unbeveled land at the joint root—and required surface condition. A maximum published angle alone does not demonstrate that the proposed machine can produce that section.

Precision bevel toolpaths require attention to corners, lead-ins, run-outs and their sequence. Representative CAD files should therefore drive the programming discussion around the entire component, not just a demonstration along a long straight edge.

For the proposed configuration, request the usable bevel-cutting envelope separately from the straight-cut format. Establish whether the largest recurring blank fits at the required angles and whether the relevant contours remain accessible. Do not assume the two working envelopes are identical.

When separate preparation remains useful

Separate preparation remains appropriate when the proposed laser cannot achieve the required geometry, tolerance or edge condition. Occasional bevel work may also be a weak reason to configure the primary cutter around that application. For mixed production, compare the proposed bevel cycle with the straight-cut workload that must share the machine.

Evaluate representative jobs from blank cutting through the finished edge, including programming effort, separate positioning, bevel processing and any remaining cleanup. The useful result is preparation actually removed—not simply a longer list of machine functions. If critical edges still require machining or finishing, include that work in both alternatives.

A U.S. equipment proposal should establish the supplied bevel configuration, programming scope, pricing and delivery terms. The European showcase alone does not establish BEVEL-G6025V availability through Mac-Tech.

Discuss the application with John Perry

I’m John Perry, a Regional Sales Executive at Mac-Tech working with fiber-laser applications, CNC controls and programming. Bring representative drawings or CAD files, material grades and thicknesses, required bevel sections and finishes, recurring quantities, and your current preparation methods and times. I can help compare integrated bevel cutting with separate preparation and work with Mac-Tech to assess suitable equipment configurations and investigate U.S. availability.

Sources

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