Lasers are ideal tools for highly controllable modification of the structure and/or functionality of a surface. We work on a wide range of laser surface modification processes, including engraving; marking; micro-machining; polishing; friction modification; and super hydrophobicity, for applications ranging from medical implants to ship engine parts.

Ultra-Fast lasers, producing pulses in the femto- and pico-second range, allow us to access manufacturing regimes inaccessible by any other technique. This gives the ability to “cold process” materials with problematic thermal properties as well as to access non-linear phenomena to process materials from the inside out. Our interests include machining glasses, dissimilar material welding, and volumetric modification.

Current Projects:

Medical Device Manufacturing Centre (MDMC)

Manufacturing research in AOP underpins aspects of the Medical Device Manufacturing Centre (MDMC) that assists companies in the translation of medical device concepts to commercial products. 

Prof Duncan Hand is Director of the MDMC

MDMC Website


Microtex

The EPSRC Research and Partnership Hub in Microscale Science and Technology to Accelerate Therapeutic Innovation.

A collaboration involving the University of Edinburgh, Heriot-Watt University, and the University of Bath, MicroTex is focused on the pursuit of advanced technologies to transform the development of new therapies for infections and inflammation – conditions that rank among the leading causes of illness and death worldwide.

Microtex Website


Ultrafast Laser Welding of Crystalline Materials

Collaborators: R. McCraken (IPAQS), AFRL

Project Details


Novel Ultra-Short Pulse Laser Techniques for NIR Optics

Collaborators: R. McCraken (IPAQS), Calum Ross (IPAQS), Savash Fikretov (IPAQS), AFRL

Project Details


Smart Products Made Smarter

Collaborators: M. J. Daniel Esser (IPAQS), Michael Chantler (MACS), Leonardo MW, University of Edinburgh

Project Details


SURFACTANT: laser texturing and soldering for EV battery manufacture

Collaborators: University of Sheffield, AMRC and UWS

Project Details


Shape Memory Alloys: laser machining and heat treatment to create miniature actuators for in-vivo microfluidics

Collaborators: Renishaw plc.

Project Details