Super-Pixels · Project

Smart Camera Chip That Sees Hidden Light Properties for Better Imaging and Sensing

digitalPrototypeTRL 4Thin data (2/5)

Regular cameras only capture how bright things are — like seeing the world in one dimension when there are actually three. This project built a tiny chip that also captures how light waves twist and rotate, revealing information that normal sensors completely miss. Think of it like upgrading from a basic microphone that only hears volume to one that also picks up direction, pitch, and echo — suddenly you can do things that were impossible before. The team created a working prototype camera that can see invisible nanoparticles, look through tangled optical fibers, and correct for atmospheric distortion, all in a single camera frame.

By the numbers

consortium partners across 5 countries

total project deliverables

working demonstration deliverables

several hundred

Mach-Zehnder interferometers on a single chip

industry partner ratio in consortium

The business problem

What needed solving

Current camera and sensor systems capture only light intensity, missing critical information encoded in how light waves are shaped and polarized. This limits what industries can detect, image, and communicate optically — forcing companies to use bulky, expensive, and inflexible workaround systems for applications like nanoparticle detection, endoscopy, and free-space optical communications.

The solution

What was built

The team built an integrated prototype super-pixel camera — a compact photonic chip using several hundred Mach-Zehnder interferometers that dynamically maps phase and polarization of light. They demonstrated it working for fiber calibration, atmospheric sensing, wave-front self-alignment, nanoparticle visualization, and high-NA fiber polarization imaging across 33 deliverables.

Audience

Who needs this

Optical communications equipment manufacturers needing atmospheric turbulence correctionMedical endoscope makers wanting better imaging through thin optical fibersSemiconductor cleanroom equipment companies needing nanoparticle detectionDefense and aerospace companies building compact imaging systemsQuantum communications companies developing reconfigurable optical links

Business applications

Who can put this to work

Telecommunications

enterprise

Target: Optical communications equipment manufacturers and free-space optical link providers

If you are a telecom equipment company dealing with atmospheric interference degrading your free-space optical links — this project developed an integrated photonic chip with atmospheric turbulence correction demonstrated through an intelligent beacon for atmospheric sensing. The prototype performs wave-front sensing and self-alignment of the receiver camera, which could dramatically improve link reliability without bulky external correction systems.

Medical Devices & Life Sciences

mid-size

Target: Endoscope manufacturers and biomedical imaging companies

If you are a medical device company struggling with image quality through thin optical fibers in endoscopes — this project demonstrated imaging through multimode optical fibers and built a prototype super-pixel camera that maps phase and polarization in a single frame. This means clearer, richer diagnostic images from thinner, more flexible endoscopy probes without adding hardware bulk.

Semiconductor & Photonics Manufacturing

mid-size

Target: Nanoparticle detection and quality inspection system integrators

If you are a precision manufacturing company that needs to detect invisible nanoparticles on wafers or in cleanrooms — this project built a chip that visualizes normally invisible nano-particles through phase mapping. The integrated prototype super-pixel camera fits alongside commercial cameras, potentially replacing expensive standalone particle detection setups with a compact add-on module.

Frequently asked

Quick answers

What would it cost to integrate this technology into our existing camera systems?

The project designed the chip to partner with commercially available cameras to enhance their functionality. Since no EU contribution figure or unit cost data is available, pricing remains undetermined. However, the integrated photonics approach aims for compact, mass-producible chips — which typically drives costs down at scale.

Can this scale to industrial production volumes?

The chip is based on integrated photonics — a mesh of several hundred Mach-Zehnder interferometers on a single chip. Integrated photonics is a mature fabrication platform used in telecom, which suggests a viable path to volume manufacturing. However, the project consortium included no industrial manufacturing partners, so a commercialization partner would be needed.

What is the IP situation and how can we license this?

The project was funded under FET Open (FETOPEN-01-2018-2019-2020), a research-focused funding scheme. IP would be held by the 5 consortium partners led by University of Glasgow. Licensing terms would need to be negotiated directly with the consortium through formal technology transfer channels.

How mature is this technology — is it ready for deployment?

The team delivered an integrated prototype super-pixel camera and 5 demonstration deliverables covering fiber calibration, atmospheric sensing, wave-front sensing, and polarization imaging. This places it at prototype stage. Further engineering and field testing would be needed before commercial deployment.

What specific demonstrations have been completed?

Based on project deliverables: fiber calibration using a super-pixel device, an intelligent beacon for atmospheric sensing, wave-front sensing with self-aligning receiver camera, an integrated prototype super-pixel camera, and polarization properties of high-NA fiber imaging. That is 5 distinct demonstrations across 33 total deliverables.

Does this work in real-world outdoor conditions?

The project specifically demonstrated an intelligent beacon for atmospheric sensing and wave-front sensing with self-alignment of the receiver camera, which directly address real-world atmospheric turbulence. However, these were controlled demonstrations, not extended field deployments. Based on available project data, outdoor robustness at commercial scale has not yet been validated.

Consortium

Who built it

This is a purely academic consortium — 3 universities and 2 research organizations across 5 countries (AT, CZ, DE, IT, UK), with zero industry partners and zero SMEs. The 0% industry ratio is a clear signal that commercialization was not the primary goal. For a business looking to adopt this technology, this means you would be the first industrial user. The upside is that there is no competing licensee; the downside is that significant engineering work remains to bridge the gap from lab prototype to a product. The University of Glasgow leads the consortium and would be the primary contact for technology transfer discussions.

UNIVERSITY OF GLASGOWCoordinator · UK
USTAV PRISTROJOVE TECHNIKY AVCR VVIparticipant · CZ
POLITECNICO DI MILANOparticipant · IT
UNIVERSITAET GRAZparticipant · AT
MAX-PLANCK-GESELLSCHAFT ZUR FORDERUNG DER WISSENSCHAFTEN EVparticipant · DE

How to reach the team

University of Glasgow, UK — contact through their technology transfer office or the project website

Order a report on this consortium See UNIVERSITY OF GLASGOW profile →

Next steps

Talk to the team behind this work.

Want an introduction to the Super-Pixels research team? SciTransfer can arrange a briefing call and help you evaluate whether this photonic sensor chip fits your product roadmap.

Order a report on this topic More in Digital & ICT