Imagine if computer chips could think more like a human brain while using far less power. Instead of relying on old silicon methods that are hitting a wall, this work uses a special 'atomic painting' technique to add thin layers of smart crystals to hardware. This allows devices to process information faster and stay cool without using toxic materials.
Traditional silicon chips are reaching their physical limits, leading to higher energy consumption and slower performance. Europe also lacks technological sovereignty in the semiconductor supply chain.
Pre-prototype devices integrating ferroelectric (Hf,Zr)O2 and BaTiO3 films via atomic layer deposition.
If you are a chip fabrication plant dealing with the physical limits of silicon and high energy consumption — this project developed a way to integrate epitaxial complex oxides using atomic layer deposition that enables low-power electronics.
If you are a neuromorphic chip designer dealing with the need for brain-like computing architectures — this project developed proof-of-concept devices using ferroelectrics that boost energy efficiency in computing hardware.
If you are an optical communication equipment provider dealing with the demand for faster data transmission — this project developed functional materials for photonic devices that improve light-based computing and communication.
Based on available project data, specific unit costs or pricing models are not provided; however, the project is supported by an EU contribution of EUR 3,888,904 to develop the technology.
Yes, the project specifically focuses on producing high-quality oxide materials under industry-compatible conditions using atomic layer deposition to bridge the gap to commercial applications.
Based on available project data, specific licensing terms are not listed, but the project involves 5 industry partners and 4 SMEs to drive entrepreneurship and value creation.
The project uses atomic layer deposition to enable low-temperature integration of functional complex oxides directly into semiconductor-based devices.
The project period runs from 2024-01-01 to 2027-12-31, suggesting that commercial readiness will be evaluated toward the end of 2027.
The consortium is heavily industry-weighted with a 56% industry ratio, comprising 5 industrial partners (including 4 SMEs) and 3 universities. This structure suggests a strong focus on commercial translation rather than pure academic research, with a diverse geographic spread across 6 countries including Norway, Finland, and the Netherlands.
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Contact us to connect with the CONCEPT consortium for early adoption of low-power oxide electronics.
