Whether you are in medical device development, diagnostics, clinical research, or digital health, you must deliver precise, safe, and scalable solutions under strict regulatory, cost, and performance constraints. Photonics — the science and technology of light — gives you powerful tools to meet these demands, from non-invasive imaging and biosensing to advanced surgical and wearable technologies.
Discover how you can:
And so much more!
Photonics empowers the healthcare industry in countless ways. From faster, more accurate disease diagnosis and better medical treatment to improved medicine effectiveness and precise cancer detection through optical methods of medical imaging and in-vitro diagnostics.
Innovation with the advantages of light reduces the burden on healthcare and ensures a healthier, happier life.
Curious how photonics can support your work? These examples show how light-based technologies are already transforming healthcare — enabling earlier diagnoses, smarter therapies, and more patient‑friendly devices.
Apply for innovation supportUse light in lab and point-of-care tools to measure biomarkers, analyse tissues, and support precision diagnostics.
Methods such as optical, infrared, or hybrid imaging give high resolution, functional and structural views inside the body.
Fibre-optic and micro-light systems allow doctors to see inside organs without large incisions.
Light-based sensors detect specific molecules (e.g. proteins, DNA, metabolites) with high sensitivity in bodily fluids.
Integrate photonic functionality into microfluidic or fibre platforms to miniaturise assays and model biological systems.
Use controlled laser light for cutting, ablation, therapy, skin treatments or dental applications with high precision.
Non-contact imaging technique using light interference to capture cross-sectional views of tissues (e.g. retina, skin).
Photonic Integrated Circuits (PICs) embed optical sensing or measurement on chip formats for compact medical devices.
Light-based wearable devices monitor physiological parameters (heart rate, blood oxygen, glucose) continuously.
Use structured light, time-of-flight, or interferometric methods to create high fidelity 3D models for planning, diagnostics or monitoring.