INNOVAGLASS
The sustainable revolution in smart windows
Imagine windows that can magically adjust their transparency with just a touch.
InnóvaGlass smart windows not only redefine the concept of a window but also promote sustainability by using eco-friendly and cost-effective materials.
Designed primarily for smart buildings, energy-efficient homes, stylish cars—and much more!
The future of smart windows is already here.
INNOVAGLASS, the first unique and cost-effective alternative for Smart Windows
THE PROBLEM
Most current Smart Window technologies use glass with very expensive electrodes and liquid crystals, which lead to:
- High manufacturing and operating costs
- Durability issues when exposed to UV and moisture
- Limited indoor use due to low stability against UV and temperature. Very high energy consumption during activation.
All these challenges become more pronounced as window size increases, further limiting their popularization and, consequently, market demand—which is why we don’t have them in our homes.
THE SOLUTION
INNOVAGLASS® overcomes these barriers, finally making the arrival of Smart Windows in our homes possible:
- Significant cost reduction and simplified manufacturing, with no need for glass electrodes or liquid crystals
- Compliance with future energy and sustainability regulations, with no equivalent alternatives available today
- Exceptional durability against solar radiation (UV/temperature), suitable for both indoor and outdoor applications
One of the most remarkable advantages of INNOVAGLASS® is its reduced costs, which, in addition to being a unique product, cut manufacturing expenses by up to 80–90% compared to current technologies or potential competitors.
What is INNOVAGLASS?
INNOVAGLASS is a technology developed at CSIC that aims to revolutionize the smart window market with a low-cost, highly durable, and energy-efficient solution.
Unlike current technologies—which use conductive glass or liquid crystals—, it adjusts transparency without relying on these materials, thus reducing manufacturing costs and energy consumption. Additionally, it withstands weather, UV radiation, and temperature variations, making it the only viable option for outdoor use.
Technological development status
The project already has a functional 20×25 cm prototype and is in an advanced stage of development.
The next phase involves scaling up to a 1 m² prototype.
The technology is protected by patents that include additional features, such as thermal regulation and color variation, which enhance its unique value and potential for commercial licensing.
For which sectors
Who makes up the team?
The project has a R&D team specialized in materials and manufacturing processes, with access to CSIC laboratories and collaboration with industrial partners.
Key activities include:
Optimization of materials and processes.
Commercial validation in real-world environments.
Expansion of strategic partnerships.
Creation of a laboratory in an innovation center.
Acquisition of equipment and certifications for production.
How is it funded and what are the next phases?
Funding combines seed capital, public grants, and strategic collaborations.
The development plan is divided into two stages:
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Technological validation (first 6 months).
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Business and commercialization strategy, including market analysis, business model definition, and preparation of investor presentations.
The Team
Levy Cohen, David
ICMM-CSIC Professor,
Project PI
Materials Science
Félix Salazar
UPM Professor
Applied Physics
Yaiza Lozano
ICMM-CSIC
PhD Student
María Carrascoso
VATC/OTC-CSIC
Knowledge Transfer
Contact
Institute of Materials Science of Madrid (ICMM)
Registered address: Sor Juana Inés de la Cruz, 3, Cantoblanco, 28049 Madrid, Spain
Phone: (+34) 91 334 90 00
Email: info@icmm.csic.es