Novanta Laser surface engineering

Advanced Industrial

Laser Surface Engineering

Laser‑based surface engineering systems rely on tightly integrated laser sub-systems to deliver controlled, repeatable surface modification across a range of materials and part geometries. Applications such as Laser Surface Texturing (LST), Laser Cladding, Laser Surface Modification, and Laser Hardening / Surface Transformation Hardening place demanding requirements on laser stability, beam control, and scan accuracy.

Novanta - Enabling laser support

Enabling Laser Surface Engineering System Performance

Machine builders in the laser surface engineering market face increasing pressure to deliver higher process precision, improved repeatability, and scalable throughput, often across diverse materials and complex part geometries. Systems must support tightly controlled energy deposition while maintaining uptime and integration flexibility for production environments.

Novanta - Laser surface texture support

Laser Surface Texturing and Surface Modification

Applications such as Laser Surface Texturing (LST) and Laser Surface Modification depend on precise control of laser energy and beam control to achieve repeatable surface features and controlled material interaction. Ultrafast lasers are commonly used to enable fine feature definition while minimizing thermal effects on the surrounding material.

Novanta - Precision beam steering

Precision Beam Steering for Laser Cladding and Hardening

Laser Cladding and Laser Hardening / Surface Transformation Hardening processes require controlled energy delivery over defined surface areas, often on complex or contoured parts. Accurate beam placement and coordinated multi‑axis motion are essential to achieving uniform layer deposition or consistent surface transformation.

Integrator

Designed for Machine Builder Integration

Laser surface engineering machine builders must integrate photonic sub-systems into platforms that balance performance, mechanical constraints, and long‑term serviceability. Optical components must support flexible system layouts while aligning with machine‑level motion control, safety, and automation requirements.

Our advances technologies are designed to support machine builders developing and scaling laser surface engineering platforms, where precise energy delivery, accurate beam positioning, and synchronized multi‑axis motion
are critical to process consistency and manufacturing performance.

Laser Surface Engineering Enablers

The benefits of Laser Surface Engineering include:

Controller laser energy delivery

Controlled laser energy delivery

Supports consistent surface modification across parts and materials.

Accurate bean icon

Accurate multi‑axis beam positioning

Enables repeatable surface features and uniform treatment paths.

Ultrafast processing capability

Ultrafast processing capability

Supports fine feature generation with controlled thermal interaction.

System level integration

System‑level integration

Photonics technologies designed to align with surface engineering machine architectures.

Laser Sources Advanced Laser Additive Manufacturing
F Series 200 watt CO2 laser on a white background

f Series – 200 Watt CO2 Lasers

Laser Sources Advanced Laser Additive Manufacturing
I Series 500 and 400 watt CO2 laser on a white background

i Series – 500 and 400 Watt CO2 Lasers

Laser Sources Advanced Laser Additive Manufacturing
P-Series 100–400 watt pulsed CO2 laser on a white background

p-Series, 100-400 Watt Pulsed CO2 Lasers

Laser Sources Advanced Laser Additive Manufacturing
Ventus solid-state continuous wave laser on a white background

ventus – Solid State Continuous Wave Lasers

Novanta Multiaxis PE III

Supporting OEM Development and Platform Evolution

As laser surface engineering applications expand to new materials, geometries, and production requirements, machine builders require photonic technologies that can adapt without compromising process stability. Platforms must evolve to support tighter control, increased automation, and scalable throughput.

We work at the sub-system level to support OEM development efforts, helping align ultrafast lasers and multi‑axis scan heads with the technical requirements of next‑generation laser surface engineering systems.