Dr Adam McKenzie
Published: 23 April 2026
James Watt School of Engineering
Describe your research in fewer than 20 words
Engineering semiconductor materials and nanostructures to create efficient, scalable, next-generation laser technologies for communications and integrated photonics.
What fellowship do you hold?
I currently hold a Royal Commission for the Exhibition of 1851 Research Fellowship, which builds on the work I started during my PhD.
What is your area of research?
My research focuses on the epitaxial growth of III-V semiconductors for photonics applications. I specialise in nanostructured semiconductor lasers, such as distributed feedback (DFB) and photonic crystal surface emitting lasers (PCSELs). I also explore novel materials and fabrication methods, including void-retaining epitaxy (VRE).
Why did you choose to pursue a fellowship in your research career?
The fellowship gave me the opportunity to continue pursuing high-impact research on semiconductor lasers. I wanted to build on the work I did during my PhD and explore new ideas with more freedom and responsibility.
Why did you choose to work at the University of Glasgow?
The University of Glasgow is a recognised centre for photonics research, with strong industry partnerships and cutting-edge lab facilities. I was already well embedded within the University’s research ecosystem through my PhD and subsequent KTP project (between the University and Vector Photonics), so it felt like a natural next step in my career to pursue research independence here.
What is your research highlight?
One highlight is the development of void-retaining epitaxy, a novel method for growing semiconductors with containing nanoscale cavities, or “voids”. These voids introduce new material and optical properties to the materials, giving us the potential to transform the design and performance of next-generation photonic devices.
What do you look for in a collaboration?
I value collaborations that are technically challenging and applications focused. My background includes several industry roles, so I’m particularly interested in projects that can translate fundamental research into real-world technology.
How do you see your research impacting society?
My work contributes to the development of advanced photonic devices that will drive faster, more energy-efficient communication systems. These technologies are critical for everything from the internet to emerging quantum applications.
What are your future plans?
I’d like to expand the scope of my research into new materials systems and explore leadership opportunities in both academia and industry. Long-term, I’m aiming to establish a research group that bridges cutting-edge fabrication with device applications.
How has the fellowship benefitted your career?
It has allowed me to focus on independent research while gaining experience in leadership and mentoring. The fellowship also connects me to a strong network of peers and alumni.
Have you undertaken any public engagement?
Yes, I’ve contributed to outreach and engagement events that aim to promote photonics and materials science to a broader audience, including students and industry professionals.
Have you been awarded any awards or prizes?
I’ve previously received the 1851 Industrial Fellowship, a JSPS Summer Fellowship at the University of Tokyo, and have worked in funded roles with Sivers Photonics and Vector Photonics.
What would you say you are most proud of?
I’m proud of the way I’ve balanced cutting-edge research with industry engagement. Whether it’s developing new laser technologies or pushing fabrication techniques forward, it’s rewarding to see ideas transition from lab to application.
First published: 23 April 2026