Metal marking and engraving

We offer systems for marking, engraving, welding, cutting, drilling, and other applications where laser technology stands out as a competitive alternative.

Deep steel engraving

High-quality deep engraving on a large steel plate using a fiber laser. Engraving is performed through multiple iterative layers.

Marking of a metal compass

High contrast marking of a stainless steel part by means of a fiber laser generating a selective oxidation layer.

Hard metal marking

Depth-controlled surface engraving of a carbide tool by fiber laser with pulse duration adjustment, which avoids heating and crack generation.

Deep engraving of stainless steel

High quality deep engraving by iterative layering, using a fiber laser to obtain an anti-reflective oxidation effect.

2D engraving of steel daters

High quality deep engraving using fiber laser. Engraving is performed through multiple iterative layers.

Black and white marking of stainless steel

Marking of stainless steel by fiber laser with pulse duration control, which allows to control the thickness of the diffractive oxide layer generated and to visualize different shades of gray.

Stainless steel marking

High contrast marking of stainless steel by fiber laser by generation of a selective oxidation layer.

Photo marking on stainless steel

High quality and contrast marking of stainless steel by fiber laser through the generation of a selective oxidation layer.

Grey-scale marking of stainless steel

Marking of stainless steel by fiber laser with pulse duration control, which allows to control the thickness of the diffractive oxide layer generated and to visualize different shades of gray.

Marking of a nickel-plated faucet

High contrast marking of the coating layer of a nickel-plated brass body using fiber lasers with pulse duration adjustment, which allows to generate controlled depth erosion and to visualize the white color.

Marking of a faucet handle

Chrome-plated part engraved with a fiber laser that guarantees the partial removal of the chrome layer without reaching the base material, in this case Zamak, avoiding possible corrosion due to use in humid environments.

Marking of a gold-plated faucet

High contrast marking of the coating layer of a brass body by fiber laser with pulse duration adjustment, which allows to control the thickness of the generated diffractive oxide layer and to visualize the black color.

Marking of a black-painted faucet

High contrast marking of the coating layer of a painted brass body by fiber laser with pulse duration adjustment, which allows to control the generation of diffractive micro-bubbles generating a highly readable contrast.

Marking of a white-painted faucet

High contrast marking of the coating layer of a painted brass body by fiber laser with pulse duration adjustment, which allows to control the generated carbonization offering a highly legible contrast.

Color marking of stainless steel

Coating pickling and marking of stainless steel by fiber laser with pulse duration control, which allows to control the thickness of the generated diffractive oxide layer and to visualize different colors.

Stainless steel color marking

Marking of stainless steel using a fiber laser with pulse duration control, which allows to control the thickness of the generated diffractive oxide layer and to visualize different colors.

Stainless steel color marking

Marking of stainless steel using a fiber laser with pulse duration control, which allows to control the thickness of the generated diffractive oxide layer and to visualize different colors.

Marking of black anodized aluminum

High-contrast marking due to the surface chemical transformation of the anodized coating employing a fiber laser with pulse duration control.

Black anodized aluminum marking

High-contrast marking due to the surface chemical transformation of the anodized coating employing a fiber laser with pulse duration control.

Anodized aluminum color marking

High-contrast marking due to the surface chemical transformation of the anodized coating employing a fiber laser with pulse duration control.

Marking of anodized aluminum

Obtaining different shades in anodized aluminum due to surface chemical transformation using a fiber laser with pulse duration control.

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