Roman Zakoldaev
Job description
Designing novel photonic components and laser technologies to advance spectroscopic analysis, enabling ultra-sensitive detection and precise measurement for scientific and biomedical applications.
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Publications outside Cristin
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Top-5 papers:
1. A nanophotonic waveguide was developed to detect CO₂ at one molecule per billion with isotope ratio precision matching high-end instruments, advancing climate and bio-science applications.
2.
Research interests
My research explores the intersection of photonics, laser technologies, and nanomaterials for advanced spectroscopic analysis. I developed a method for inscribing nanofluidic elements, culminating in a patented photonic gas sensor in 2019.
In 2020, I founded the 'Direct Laser Writing in Glass' group to push the boundaries of sub-micron structuring for applications in augmented reality, microfluidics, and bulk waveguide designs.
Since moving above the Arctic Circle in 2023, I have been advancing waveguide-based sensors for greenhouse gases. Recently, our team demonstrated a nanophotonic waveguide engineered to ‘localize light in air,’ enabling CO₂ detection at the level of a single molecule in a billion and achieving the first real-time stable isotope ratio measurements.
Since 2024, I'm preparing the project on developing a photonics biosensing platform for protein analysis. Ultimately, this technology could revolutionize how we monitor protein misfolding, paving the way for earlier and more reliable Alzheimer's diagnoses.
I’m excited to welcome collaborators to join me on this journey.
Find me on LinkedIn: click here
Member of research group
CV
EDUCATION
2015 – 2018
Ph.D. in Quantum Electronics
Project:
Laser modification of porous glass: physical and technological fundamentals and applications
2013 – 2015
MS in Laser technologies
Project:
Laser micro-plasma for micro-optical elements fabrication
2009 – 2013
BS Technical Physics
Project:
Laser-induced internal modification of porous glass