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QUANTRILUX™ 

Advanced Photonic & Materials Technologies

Re-capture. Re-cycle. RE-LITE.

Research platform | Licensing-ready technologies | Industry collaboration

Value Statement

Quantrilux™ is a materials and photonics research initiative focused on engineering next-generation light, energy, and polymer systems for improved efficiency, durability, and performance.

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FLAGSHIP PROJECT: RE-LITE

Re-Lite is an advanced reflective backsheet engineered to recycle photons that would otherwise be lost through the rear of photovoltaic modules. By combining ultra-diffuse scattering, microstructured polymer foams, and inorganic reflectors, Re-Lite increases light absorption, reduces thermal load, and improves long-term module performance.

Re-Lite is compatible with silicon, tandem, perovskite, flexible, and thin-film photovoltaic architectures.

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PRODUCT VARIANTS

Quantrilux™ Re-Lite Standard

Utility-scale and rooftop solar applications.

Quantrilux™ Re-Lite Industrial
Large-format modules and harsh-environment installations.

Quantrilux™ Re-Lite Flex

Flexible, curved, and portable photovoltaic systems.

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What is Quantrilux™?

Quantrilux™ is a research-driven technology platform focused on controlling photons, heat, and material behavior at the micro- and nano-scale.

Core areas include:

  • Reflective photonic surfaces

  • Hybrid polymer systems

  • Energy-enhancing materials

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Quantrilux™ Re-Lite  Offers

  • ≥97–99% diffuse reflectance (350–1500 nm)

  • 5–12% module-level efficiency improvement

  • Reduced operating temperature

  • Lightweight, UV-stable fluoropolymer matrix

  • Drop-in backsheet compatibility

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PRODUCT VARIANTS (continued)

Quantrilux™ Re-Lite Aero

Ultra-lightweight aerospace and defense solar applications.

Quantrilux™ Re-Lite Micro

Wearables, sensors, and compact energy-harvesting devices.

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How It Works

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Light exiting the rear of the solar absorber is diffusely scattered back into the active layer, increasing the probability of absorption.

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A combination of microvoid foams, BaSOâ‚„ particles, and nanoscale reflectors creates broadband, angular scattering.

Optional thermal routing layers and durable fluoropolymers reduce heat buildup and extend module lifespan.

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FUTURE PROJECTS

Coming From Quantrilux™

  • Advanced optical lens systems

  • Self-healing polymer materials

  • Thermal management films

  • Hybrid photonic structures

                Collaboration & Partnerships
 

Quantrilux™ actively seeks collaboration with manufacturers, research institutions, and industry partners interested in validating, scaling, or licensing advanced photonic and materials technologies.

Engagement models include joint development, licensing, pilot-scale manufacturing, and third-party testing.

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Interested parties are encouraged to initiate confidential discussions. Preliminary technical overviews are available upon request.

Quantrilux™

is a research initiative developed by T.M. Vornes.

 

All technologies are proprietary and may be protected by pending or future intellectual property filings.

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