Light Lane
One core, every substrate

The substrate changes, the source changes, the core does not

Signage in acrylic and dibond, nameplates in stainless, black marks inside the anodic layer on aluminium, joinery in oak and ply, leather patches and denim branding, foam and card packaging inserts, serials and Data Matrix on machined parts, and prototypes that go from sketch to sample the same day. All of it runs on the same controller-aware core, written in Nelson. What changes between them is the source the material dictates and the parameter set established on your own sample.

  • The source is specified against the material: fibre at about 1064 nm on steel, stainless and engineering alloys, green at 515 or 532 nm on copper, brass, gold and silver, UV at 355 nm on glass, ceramics and heat sensitive plastics, CO2 at 9.3, 10.2 or 10.6 micron on timber, board, card and acrylic
  • Data Matrix generated to ISO/IEC 16022 and graded to ISO/IEC 15415, linear symbologies graded to ISO/IEC 15416, accepted at the grade the scanner class your operation carries actually supports
  • Machine profiles and material settings saved per substrate and per mark type, so the parameter set that produced an accepted part is recovered rather than rediscovered
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The hard part was solved once, generally

Signage. Drinkware. Joinery. Apparel. Packaging. Machined parts. Prototypes. One core, specified across all of them, with a different source, a different substrate and a different fixture on each.

What makes that one platform rather than a shop taking whatever walks in the door is what stays fixed across the range. The same composition engine builds the artwork and the code. The same controller-aware output drives the machine. The same machine profiles and saved material settings hold the parameter set per substrate. The same safety specification, the same operator procedure and the same handover pack arrive with every configuration. Only the source and the parameter set change.

That is also why breadth is the test rather than a market list. The shift underneath all of this is substrate blind: a retailer moving to 2D scanning at the checkout does not care whether the object is a coated panel or a leather patch, and a customer asking for a permanent identifier wants it on a stainless fitting and on a plywood component alike. For a plant that runs acrylic signage on Monday, a stainless bottle batch on Wednesday and a joinery order on Friday, that is the difference between one process across the whole order book and a separate supplier per material. Why the incumbent methods split along substrate lines is worked through in the laser versus inkjet comparison.

Composing the correct mark for the part actually under the head, holding the geometry true while the machine moves, emitting into whatever controller sits in the cabinet, and saving the setting that produced the accepted part: none of that changes when the substrate changes. It was engineered once, generally, and the material decides the wavelength rather than the workflow.

What the platform is specified to produce

Each of these is the same core with a different source and a different fixture in front of it. Every parameter set below is established on your own material during the sample run and saved as a machine profile before the first production job.

Signage and displays

Cut acrylic and dibond letterforms, engrave timber and ply feature panels, mark stainless and aluminium nameplates, build layered signage with standoffs, and cut point of sale components. CO2 into the acrylic, timber and ply, fibre at about 1064 nm into the metal plates and fixtures. Published marking windows run from about 31 by 38 mm up to about 601 by 440 mm depending on the focal length specified, from 64 mm through to 600 mm, and that is what decides how much of a panel is covered in one placement rather than indexed across several.

See signage and branded production

Branded and promotional product

Engrave pens, keyrings and desk accessories in timber, acrylic and anodised aluminium, batch mark merchandise on a rotary or conveyor for corporate runs, and cut and engrave leather goods, notebooks and coasters. On anodised aluminium the short pulse changes the anodic layer rather than cutting it, so the mark forms inside the coating and the surface stays sealed. Published manufacturer application parameters on a 20 W MOPA source with a 254 mm lens run around 8 ns at 200 kHz and 1500 mm/s in a single pass, with line spacing setting the tone from grey through to a dense black.

See signage and branded production

Drinkware and awards

Engrave stainless bottles and tumblers on a rotary fixture, frost glass for awards and trophies, cut and engrave timber and acrylic plaques, and mark anodised name badges. On stainless the choice of mark type is a real engineering decision: an annealed mark grows a sub-surface oxide with no material removed and leaves the passive chromium oxide layer intact, while an engraved mark breaks that layer and can become a corrosion site on a product that gets washed. The rotary is what turns a cylindrical run into a production job rather than one piece at a time.

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Timber and joinery components

Cut and engrave joinery components, cabinetry inlays, decorative panels and feature veneers in oak, pine, ply, MDF and acrylic at sheet scale, batched to your own sheet stock with jigs for the parts you cut the same way every time. Two engineering notes carry this substrate: surface moisture absorbs energy and escaping steam disturbs the mark as it forms, so parameters are set per product rather than carried over, and a Data Matrix crossing an LVL glue line can lose symbol grade because the glue and the wood either side do not burn the same way, so codes are placed deliberately.

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Apparel and textile elements

Cut and etch leather patches, engrave branding into denim and canvas, and produce fabric applique elements ready for stitching. Textile work is decided by energy per millimetre rather than by peak power, so the parameter set is established on your own roll and saved against that fabric, and durability through the wash cycle is proved on the sample before it is written into the job. The run stays inside your own production line instead of moving to a contractor's queue.

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Packaging and inserts

Cut foam and card inserts fitted to a specific product, engrave branding directly into kraft and rigid packaging, and cut window and structural elements for retail packs, sized to your actual packing volumes rather than a print supplier's minimum run. Where the pack carries film, the wavelength decides the outcome: PET barely absorbs 10.6 micron and absorbs 9.3 micron efficiently, which is the difference between a readable code and no code at all, so the source is selected against the film before anything is quoted.

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Parts and asset marking

Permanent serial numbers, batch codes and Data Matrix on stainless, mild steel, aluminium and brass parts, plus jig, gauge and fixture identification. Data Matrix is generated to ISO/IEC 16022 and graded to ISO/IEC 15415, linear codes to ISO/IEC 15416, and the accept threshold is set against the scanner class already in the building. The identifier is the one your job or parts numbering system already issued, so the part carries the record rather than a second one, and the mark replaces dot peen, hand stamping and an outsourced marking pass with an in-house step.

See asset marking

Prototyping and product development

Cut and engrave test parts and proofs of concept in acrylic, ply, MDF and engineering plastics, then run the accepted parameter set straight into production output once the design is confirmed. The desktop application, running the same controller-aware core, previews the generated toolpath colour coded by power rather than showing the source artwork, so a bad setting is caught on screen instead of on the workpiece. An idea goes from sketch to sample in the same shift instead of waiting on an outside job.

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Substrate, source and what actually forms in the material

This is a selection matrix, not an inventory. We specify and integrate the source the material dictates, and the parameters are established on your own material in the sample run before anything is quoted. Every mark below is the substrate reacting to energy, an oxide, an anneal, a char, a foam, a frost or an exposed underlayer, because a laser deposits nothing.

Material family Source class the application calls for What forms in the material Engineering notes
Steel, stainless, mild steel, titanium and engineering alloys Fibre at about 1064 nm Anneal, oxide colour change or material removal, depending on power and pulse settings An annealed mark leaves the stainless passive surface intact. An engraved mark breaks it and can become a corrosion site, so mark type is a real decision rather than a setting, and it is made against what the part goes through after marking.
Anodised and coated aluminium Pulse-controlled MOPA fibre, typically 4 to 200 ns at 1.6 kHz to 1 MHz Dense black formed inside the anodic layer, with the surface left sealed and the finish intact A mark inside a coating exists only within the coating thickness, so sustained abrasion eventually reaches through it. Where the product is handled hard, the specification is a mark into the base metal before anodising, or a harder finish over the top, decided at the sample run.
Copper, brass, gold and silver Green at 515 or 532 nm Stable, repeatable coupling into metals that reflect infrared Absorption at 1064 nm is only a few percent at room temperature and climbs sharply below about 600 nm, so a reflective alloy is a source selection question rather than a power question.
Oak, pine, ply, MDF, kraft and rigid card CO2 at 9.3, 10.2 or 10.6 micron Controlled char for engraving and branding, and a clean cut edge through sheet stock Surface moisture absorbs energy and escaping steam disturbs the mark as it forms, so parameters are set per product. The window between a clean mark and burn through on thin card is narrow, so each stock is characterised once and saved as its own machine profile.
Cast and extruded acrylic, dibond, engineering plastics CO2 on acrylic and dibond, UV at 355 nm on heat sensitive grades including PP, POM, PBT and polyamide Frosted engrave and polished cut edge on acrylic, high contrast marks on plastics that foam or char under long pulses UV breaks the bond photochemically rather than heating it, so there is effectively no heat affected zone on thin and sensitive stock. Contrast on unfilled polymers is the variable, so it is a sample and test conversation rather than an assumption.
Glass, quartz and ceramics UV at 355 nm, with CO2 where a frosted sandblasted look is what the piece calls for Clean photochemical marks on technical glass, frosted engraving on drinkware and award pieces 1064 nm passes through clear glass rather than being absorbed, which is a fixed property of the wavelength, so the answer is the source rather than more power. Fixturing and support carry as much of the result as the parameters on a thin-walled piece.
Leather, canvas, denim and fabric applique CO2 Sealed cut edges on leather and canvas, controlled surface char for branding on denim Energy per millimetre is the controlled quantity here, not peak power, and it moves with weight and weave. The parameter set is proved on your own roll and the wash durability result is recorded with it.
Foam inserts and packaging film CO2, at 9.3 micron where the substrate is PET Fitted foam cavities cut to the product, and readable codes formed in film PET barely absorbs 10.6 micron and absorbs 9.3 micron efficiently, which is the difference between a readable code and no code at all. On laminated packs the barrier layer is checked as part of the specification rather than after the run.

Method selection: where the specification routes the job

Substrate routing is settled at scope, on your own material, and written into the parameter set alongside the machine profile. Each of these is a decision made before a sheet is ordered rather than after a run is scrapped.

  • PVC and other chlorinated stock is routed to a mechanical cutting method. Cutting it liberates chlorine that attacks the optics, the extraction and the frame, so the substrate question is settled at the scoping call and the material is specified out of the job rather than discovered in it.
  • Solid timber above the section depth one CO2 pass clears is routed to the saw, with the laser holding the branding, the code and the fine detail. Engraving depth is set by power and passes, cutting depth is the variable that decides the split, so the actual section thickness you run is measured at scope and the split is written into the process.
  • Loosely woven, stretch and lightweight single layer fabric is characterised on your own roll before a parameter set is issued, because the energy that gives a clean sealed edge on heavy denim will scorch a light knit. The sample run settles it and the result is saved against that fabric.
  • High gloss laminated and foil faced packaging stock gets its own tested profile rather than a shared default, because the laminate reacts at settings that look correct on plain board. Each stock is characterised once and saved as a machine profile so the setting is recovered rather than rediscovered.
  • Where an arbitrary brand colour or a Pantone match is the requirement, that is a printing requirement and we specify it as one, because a laser deposits nothing and every mark is the substrate reacting to energy. The laser holds the cut, the code and the permanent identity, and the printed panel holds the colour.

The engineering that makes one machine cover that range

The range above is not a list of separate capabilities bolted together. It is one core, one output path and one profile system, with the source and the parameter set changing underneath it.

Where these figures come from

Every figure below is measured out of the core's own engineering rather than lifted from a source manufacturer's brochure. The same dialect emitters, the same published tolerances and the same fixture suite carry the industrial marking layer, so a number proved on your bench work is the number that still holds when the volume grows. The full published envelope sits on the specifications page.

  • One internal, dialect-neutral motion program, emitted into GRBL, Marlin, Smoothieware and Generic, each with its own laser-on command, travel strategy, power scale, precision and streaming discipline. Power scaling is read off the controller's own $30 value at connect time rather than assumed, and Ruida runs as an external bridge labelled alpha
  • Heat map preview showing the generated toolpath colour coded by power rather than the source artwork, so a setting that would ruin the piece is caught on screen instead of on the workpiece
  • Ten stage raster processing built on colorimetric physics rather than a brightness slider, ending in serpentine rows, 2.5 mm overscan so the head is already at velocity before it fires, and inline power quantised into 50 steps. That is what holds a photographic engrave on oak or a tonal logo on a stainless tumbler steady from the first piece of a batch to the fiftieth. We treat the image as a light source, not as a picture
  • Ten stage vector optimisation with its tolerances published, including edge dedup at 0.01 mm, Douglas-Peucker simplification at 0.05 mm and closed paths ordered by descending signed area so outer contours run last: a part that drops out of the sheet before its detail is finished is scrap
  • A golden fixture suite holds emitted machine output stable across three dialects, 42 fixtures across two images and seven processing variants, with a conformance validator checking output against the dialect rules, so a change to the geometry engine cannot silently change what your machine makes when the software updates
  • Dynamic power modulated against actual velocity, because a head decelerating into a corner deposits more energy per millimetre than a head at cruise, which is what burns corners. Constant power is not a constant result
  • Machine profiles and saved material settings per substrate and per mark type, written down as well as stored, so an accepted parameter set is recovered rather than rediscovered when the operator changes
  • Class 4 laser safety is enclosure, interlocks, beam containment and a rated safety circuit, specified to ISO 11553-1, IEC 60825-1, IEC 60204-1 and ISO 13849-1, and it is part of the install specification rather than an accessory

Go deeper

The controller-aware core

The software that composes the geometry, emits the motion and holds the coordinate frame through a stop and a restart.

See the software

Modules and rigs

Rotaries, conveyors, fixturing and jigs, extraction and filtration, enclosures and interlocks, designed and built in our Nelson facility around the part you actually run.

See the modules

How the engagement runs

Scoping call, product and volume review, sample runs on your own materials, system design, build, install, training and support.

See the stages

A substrate that is not named here is a characterisation, not a guess

The material families above cover the work that arrives most often, and the source selection matrix covers how a wavelength is chosen against a material. Between them they answer most products. Where a product sits outside them, the route is the same one every named substrate took to get onto the page: a sample run on the actual material, in the surface condition it actually arrives in.

Send the part, or bring it to the scoping call, and say what happens to it afterwards, the wash, the handling, the abrasion, the years outdoors, and the scanner class your operation carries if it has to hold a code. You get back a parameter set proved on that material, the mark type it calls for, and the machine profile saved against it. That is the shortest route from a published envelope to a number that belongs to your own product.

Published figures on this page are typical envelopes from our own testing and manufacturer application data attributed where it is theirs. The binding number for your work is the one established on your own material and written into the scope before the system is built.

Bring the part to the scoping call

Bring samples or photos of what you make, the volumes you run in a typical month, the materials involved, and the finish the customer signs off against. We come back with the source the material calls for, a parameter set proved on your own sample, the modules the work needs in front of the head, and a scope with a price against it.

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Last updated August 21, 2026