The technology

Light does the work.
Nothing else touches it.

Laser cleaning is an established, risk-conscious method for surface restoration and preparation — on metal, stone, masonry, wood and more. The beam is programmed to remove what is on the surface and leave the surface itself alone.

1064–1080 nm fiber laser Pulse & continuous ≤6000 W Non-contact ANSI Z136

Rust lifted from a steel surface, bare metal beneath

Ablation, not abrasion

Removes the contaminants.
Preserves the surface.

Rust, paint, coatings, grease and grime are the layer sitting on top. They absorb the beam, flash to vapor, and lift off. The method is the same on every job: the beam is programmed to the contaminant coming off and to the material underneath, so it clears what's on top and leaves the surface intact. What changes from job to job is how much room sits between those two settings — widest on metal, which reflects much of the beam and carries the heat away; narrower on stone, masonry and wood, which take up more of it. That is what the parameters are set for, and why they are set before the job runs rather than during it.

That window is the whole method. The beam is not grinding the contamination away; it is putting energy only where the contamination can accept it. Past what the layer needs, more power buys speed, not a cleaner result — so the systems are calibrated to the material rather than run flat out.

  • Coating / paintabsorbs — removed
  • Rust / grime / stainabsorbs — removed
  • The surfacepreserved — intact

The layer stack

What the beam meets.

Contamination sits in layers. On corroded metal that's a corrosion layer over an oxide layer over the sound surface beneath, and the beam works down through it in order, stopping at the metal. The same programming holds on stone, masonry and wood — the soiling, paint or coating lifts and the material is left alone — over a narrower window, which is why the parameters are matched to the material before any beam is fired.

Cross-section diagram of laser cleaning on corroded metal, showing the substrate, the reflective surface, the oxide layer, the corrosion layer, and the laser beam striking the surface
The layer stack, shown here on corroded metal: corrosion, oxide, and the sound surface the beam stops at. The same principle holds on stone, masonry and wood, with the parameters matched to the material.

Compared with conventional methods

Four fewer ways
for a job to go wrong.

And it runs faster — shorter timelines, less labor, and less time spent in the work zone.

  • 01 · Liability

    Reduced liability exposure

    Eliminates the use of hazardous chemicals and abrasive media, minimizing risks related to chemical handling, disposal, and workplace safety incidents.

  • 02 · Consistency

    Controlled, repeatable process

    Precision-calibrated laser systems operate within defined parameters, reducing the probability of substrate damage or inconsistent results.

  • 03 · Containment

    Minimal residue

    Unlike sandblasting or chemical stripping, laser cleaning produces minimal waste — reducing environmental liability and cleanup costs, and reducing containment requirements.

  • 04 · Contact

    Non-contact operation

    No physical abrasives or solvents are applied to the surface, lowering the risk of unintended material degradation.

Approved materials

Material suitability.

Every project is assessed individually so the right parameters and safety protocols are applied before any beam is fired.

Materials

  • Metals & alloys
  • Plastics & composites
  • Stone & masonry
  • Ceramics
  • Wood & specialty surfaces

Contaminants

  • Rust
  • Paint
  • Grease
  • Oxides
  • Industrial coatings
  • Stains & lacquer
  • Road grime
  • Brake fluid

Watch it on ten jobs

Laser rust removal in detail

A laser cutting a bright stripe of bare metal through heavy rust on a steel angle, the ablation spot glowing where the beam meets the surface
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