Back to R&D

SLCP Hybrid Technology

A new dimension of beam-matter interaction

A proprietary, patented technology developed in close collaboration with Eurotek International. The SLCP system redefines thermal processing by combining the precise power of a laser beam with a unique, low-temperature ionised environment. This enables metal modification and joining with accuracy unattainable by conventional methods. Thanks to a drastic reduction in heat-affected zone (HAZ) and optimised energy consumption, this solution has been chosen by leaders in the Aerospace and Energy industries.

The Problem We Solve

Heat-Affected Zone (HAZ)

Traditional hybrid laser processing relies on electric arc plasma — an energy source generating temperatures in the tens of thousands of degrees Celsius, leading to excessive thermal stress, an enlarged heat-affected zone (HAZ), material structure degradation, and enormous operating costs. Previous attempts to stabilise the process used gaseous media only as passive shielding. The SLCP system changes the paradigm, turning the ionised environment into an active and intelligent partner of the laser beam.

Beam and Active Ionised Environment Synergy

Energy control at the quantum level

The patented SLCP system replaces the energy-hungry electric arc with a stabilised ionised environment of high electron energy. Our solution enables precise process management without introducing destructive heat into the material.

  • Focused absorption: High-energy electrons create a localised "black body" zone that confines laser energy exactly where it is needed, preventing unwanted heat dissipation into the material.
  • Structural protection: Low-temperature ions maintain the thermal stability of the surroundings, creating an active chemical barrier that protects the processing zone from oxidation and loss of mechanical properties.

How the System Works

A breakthrough in optics and ionisation

Advanced Radiation Source

The system uses optimised laser sources (disc, diode, and others) generating a beam across a wide spectrum (from 200 nm to 15 μm). Energy is directed through a proprietary optical system with dynamic focal length control, which combined with the SLCP gas activation module achieves unprecedented process purity and precision.

Proven Processes

The SLCP system has been validated across six distinct material processing methods, with measurable gains over laser-only processing.

Welding (Titanium)

  • Joint hardness 17% lower — reduced residual stress
  • Zero porosity, zero oxide inclusions

Cladding (Stellite 6 on Steel)

  • Overlay width 24% greater
  • No porosity or cracks detected

Alloying (Metco 15E on Steel)

  • Surface hardness 1049 HV1 — 2.7× base material
  • No porosity

Dispersing (ZrO₂+Y₂O₃ on Titanium)

  • Surface hardness 4.5× base material
  • Impossible without CAP — all laser-only attempts failed

Surface Remelting (WC on Steel)

  • Hardness 17% higher than laser-only
  • Adhesive bonding upgraded to metallurgical fusion

Surface Heat Treatment (Steel)

  • Surface hardness doubled (787 vs 396 HV1)
  • No visible oxidation on treated surface

Key Advantages

Lower Energy Consumption

Our technology, leveraging synergistic interaction with the laser beam, reduces power requirements for the laser source.

Minimal Heat-Affected Zone

SLCP technology supports the laser energy — confining it to the treatment zone, eliminating adverse changes beyond the intended area.

Previously Impossible Processes

Ceramic dispersion into titanium and other combinations that cannot be achieved by laser alone.

Built-In Oxidation Protection

Ionised argon chemically isolates the treatment zone from ambient oxygen and nitrogen.

Full Microstructure Control

Adjustable SLCP parameters allow tailoring grain size, stress distribution, and phase composition.

Metals & Composites

Ionic temperatures below material melting points open new possibilities for non-metallic materials.

Applications

Process Typical Use Case
Welding Aerospace-grade titanium joints, thin sheet assembly
Cladding Wear-resistant coatings for industrial tooling
Alloying Hardening of steel surfaces with Ni-Cr alloys
Dispersing Ceramic reinforcement of titanium for extreme-wear
Surface Remelting Upgrading flame-sprayed coatings to metallurgical bond
Heat Treatment Localised hardening without bulk distortion

Who Is This Technology For?

  • Metal fabricators and welding shops seeking stronger, cleaner joints
  • Aerospace and defence manufacturers processing titanium and superalloys
  • Tooling and coating specialists extending component life
  • Plastics and composite processors needing precise surface treatment
  • Research institutions exploring next-generation hybrid methods
  • Technology integrators and OEMs interested in licensing

Technology Readiness

Technology validated at pilot scale with full metallographic, hardness, and chemical characterisation. Protected by international patent.

We offer licences to deploy SLCP technology at your facility. Full technical support provided for system integration — from configuration selection to process parameter optimisation for your materials.

Interested in licensing or collaboration?