The HPM ships with high-sensitivity light curtains, zoned PLC-controlled dust extraction and active workpiece compensation.
The light curtain arrangement is specified to be sign-off ready for procurement and safety review, which matters when a machine has to clear an internal safety process before it can be commissioned. That process is a common and avoidable source of delay between delivery and first production.
Site-specific requirements still need to be reviewed with your own health and safety authority, since jurisdiction and insurer requirements vary.
The HPM bed is built from modular 20 ft sections and extends up to 200 ft.
Because it is sectional, the machine can be specified for the beam lengths you handle now and lengthened later rather than replaced. That is a genuinely useful property for a structural shop, where the length of work you win tends to grow with the capability you install.
Motion components are rated IP67, on a stress-relieved welded bed with side-mounted rails.
Yes. The HPM cutting head, a BLT442P with an AB-axis, bevels continuously through plus or minus 45 degrees. It produces straight cuts, V-cuts, Y-cuts and finished weld-joint preparation, with integrated auto-focus and zoom.
Cutting the bevel in the same setup removes the secondary grinding station entirely. In most structural shops that station is the constraint the weld team waits on, not the cutting itself, so removing it changes throughput more than a faster cutting speed would.
HPM is Vantix's dual-station structural profile cutting platform.
The front station processes structural profile, including H-beam, I-beam, channel and angle. The rear station handles flat sheet and plate, and the two stations can run synchronously rather than waiting on each other.
It uses a 5-axis cutting head with a continuous plus or minus 45 degree bevel range, which means weld-joint preparation happens during cutting rather than at a separate grinding station afterward. For a structural shop that is usually the difference the machine is actually bought for.
Semi-automatic loading handles 6 to 7 tubes per cycle, with bundle loading available as an option.
Tail waste is near zero on the 3-chuck configuration and reduced further on the 4-chuck, which matters more than it first appears: on expensive alloy tube the offcut at the end of every stick is a recurring material cost, not a one-time loss.
On long production runs the loading method usually has more effect on parts per shift than cutting speed does, because the machine only earns while material is in front of it.
Positioning accuracy on Vantix tube and profile systems is plus or minus 0.05 mm, with chuck rotation running from 120 to 150 rpm.
Servo follow-up support is what holds that accuracy on long, thin-wall tube. Without it, unsupported material deflects under its own weight and the cut drifts along the length, which is the failure mode that separates a tube laser spec sheet from tube laser results.
Yes. Miter cuts, copes, hole patterns and notches come off the machine already in place, so tube arrives at the weld bench as a finished, weldment-ready part.
That removes the layout-and-mark step that normally sits between design and welding. It is worth noting that this step is skilled time rather than machine time, which is why eliminating it usually frees your most constrained people rather than just shifting work around the shop.
Accurate fit-up also shortens the welding itself, because there is less gap to fill and less correction after tacking.
Beyond round tube, Vantix tube and profile systems cut square and rectangular tube, plus structural shapes: H-beam, I-beam, C-channel, angle and Z-profile.
Mixed-profile work is where a tube laser earns out fastest. Each shape would otherwise need its own fixturing, its own layout time and often its own operator know-how, and that setup overhead is what makes short runs uneconomic by conventional methods.
