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ODYSSEY · Project

Laser-Printed Prescription Lenses Made On-Demand in the Optician's Shop

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Imagine walking into an optician's shop, picking your frames, and getting your prescription lenses printed right there while you grab a coffee — no more waiting days or weeks for a lab to ship them. ODYSSEY developed an ultra-precise laser printing technique that creates razor-thin, lightweight prescription lenses using nano-scale surface patterns instead of traditional thick curved glass. They already built two generations of working prototype lenses, tested them with real people, and adjusted the design based on their feedback. The team also filed two international patents and plans to launch a spin-out company to bring this to market.

By the numbers
EUR 1,933,370
EU contribution for technology development
2
International patent applications filed
6
Test persons fitted with prototype lenses
40 mm
Lens diameter of prototype lenses
+6 / -6
Diopter range demonstrated in prototypes
5
Consortium partners across 3 countries
80%
Industry partner ratio in consortium
The business problem

What needed solving

Prescription eyeglasses today require complex, centralized manufacturing — lenses are ground, polished, and coated in specialized labs, then shipped to opticians. This means customers wait days or weeks, opticians hold expensive inventory, and the supply chain is long and costly. There is no way to produce a custom prescription lens on the spot in a retail shop.

The solution

What was built

The project built 2 generations of laser-printed prototype prescription lenses (diopter +6 and -6, 40 mm diameter) using UV lithography and metasurface technology, tested with 6 real users. They also demonstrated large-area metasurface foil fabrication and ophthalmic lenses with embedded metasurfaces.

Audience

Who needs this

Optician chains looking to offer same-day custom lensesPrescription lens manufacturers seeking next-generation production methodsLaser and nano-fabrication equipment companies exploring optics applicationsEyewear brands wanting ultra-thin lightweight lens technologyMilitary and specialty optics suppliers needing rapid custom lens production
Business applications

Who can put this to work

Optical retail
any
Target: Optician chains and independent eyewear retailers

If you are an optician chain dealing with long lead times and complex supply chains for prescription lenses — this project developed laser-printed lenses fabricated in 40 mm diameter with diopters from -6 to +6, that could be made on-demand in-store. This eliminates the need to stock inventory or wait for external labs, cutting delivery time from days to minutes and reducing logistics costs.

Eyewear manufacturing
mid-size
Target: Prescription lens manufacturers and OEM suppliers

If you are a lens manufacturer struggling with expensive grinding and polishing equipment and rising material costs — this project built metasurface-based lenses using UV lithography and lift-off processes. The technology produces ultra-thin, lightweight lenses without traditional glass shaping, tested across 6 test persons with 2nd generation prototypes adjusted based on real user feedback.

Laser equipment and nano-fabrication
SME
Target: Industrial laser system manufacturers and precision optics companies

If you are a laser equipment company looking for new high-value applications for your printing technology — this project demonstrated large-area fabrication of metasurface foils and ophthalmic lenses with embedded metasurfaces. The consortium includes 2 SMEs and 4 industry partners across 3 countries, with 2 international patents filed on the core technology.

Frequently asked

Quick answers

What would it cost to license or adopt this lens printing technology?

The project has filed 2 international patent applications on the core technology and plans to launch a university spin-out from DTU. Licensing terms would need to be negotiated directly with DTU or the future spin-out company. Based on available project data, specific pricing per lens or licensing fees are not disclosed.

Can this technology produce lenses at industrial scale?

The project demonstrated large-area fabrication of metasurface foils, which is a key step toward volume production. However, current prototypes are 40 mm diameter lenses produced via UV lithography and lift-off — a process that would need further scaling for high-throughput commercial production.

Who owns the intellectual property and how can I access it?

Danmarks Tekniske Universitet (DTU) filed 2 international patent applications on the ODYSSEY technology. The project objective includes launching a university spin-out to commercialize the technology. IP access would go through DTU's technology transfer office or the planned spin-out entity.

What prescription range can these lenses cover?

The 2nd generation prototypes cover diopter +6 and -6 with 40 mm diameter, fitted to 6 test persons' individual prescriptions. Based on available project data, the full range of correctable prescriptions beyond this is not specified.

Has this been tested with real users?

Yes. The project produced 2 generations of prototype lenses. The 2nd generation lenses were fitted to 6 test persons' prescriptions and adjusted based on feedback from the first generation. Prototype lenses were also mounted in frames for real-world validation.

What regulatory approvals would be needed?

As a medical device (prescription eyewear), these lenses would require CE marking under the EU Medical Device Regulation before commercial sale. Based on available project data, the project focused on technology validation rather than regulatory certification.

Consortium

Who built it

The ODYSSEY consortium is strongly industry-oriented with 4 out of 5 partners coming from industry (80% ratio), including 2 SMEs, spread across Denmark, Greece, and Sweden. Danmarks Tekniske Universitet leads as the sole academic partner and patent holder. This heavy industry presence — unusual for an EU research project — signals serious commercialization intent. The project built on prior FET OPEN work (CHROMAVISION) and a FET Innovation Launchpad (DeLight), won the 2018 Innovation Radar Prize, and explicitly targets a university spin-out as the commercialization vehicle. With EUR 1,933,370 in EU funding and 2 international patents filed, the technology has a clear path toward market entry through the planned spin-out.

How to reach the team

Danmarks Tekniske Universitet (DTU), Denmark — reach out to the photonics or nano-optics department for technology licensing or spin-out partnership inquiries.

Next steps

Talk to the team behind this work.

Want to explore licensing the ODYSSEY lens printing technology or partnering with the DTU spin-out? SciTransfer can connect you with the right people on the research team.

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