Imagine a computer that doesn't need a giant freezer to work, unlike current quantum machines. This project uses tiny flaws in diamonds and silicon carbide to store and process information. It's like building a super-powerful calculator inside a gemstone that can run at normal room temperature.
Current quantum computers are expensive and impractical for most businesses because they require extreme cooling and vacuum systems to function. This creates a massive barrier to entry for companies needing quantum simulation or computation.
Experimental platforms for quantum simulation and computation using diamond and silicon carbide, including a software control stack and electrical readout methods.
If you are a drug discovery firm dealing with the inability to simulate complex molecular dynamics—this project developed a quantum simulator with more than 50 quantum units that enables the investigation of strongly correlated models. This allows for predicting chemical behaviors without the limits of classical computers.
If you are a semiconductor manufacturer dealing with inefficient material synthesis—this project developed improved synthesis methods for diamond and silicon carbide. This helps in creating more robust hardware for quantum-based sensors or processors.
If you are an encryption provider dealing with the threat of quantum decryption—this project developed a programmable quantum computer with more than 10 qubits at ambient temperatures. This provides a path toward scalable, low-cost quantum hardware for testing security protocols.
Based on available project data, these systems operate at ambient temperatures, which significantly reduces operation costs by removing the need for strong cooling or vacuum environments.
The project aims to identify pathways to scale up to over 100 qubits for computers and over 1000 quantum units for simulators within two years after the project ends.
Based on available project data, the consortium includes 2 SMEs and works with start-up businesses, but specific licensing terms are not provided.
The project is developing a comprehensive software stack to control the hardware, implement quantum gates, and characterize the devices.
The project identifies pathways to reach over 100 qubits within two years post-project (after December 31, 2027).
The consortium is research-heavy with 12 partners across 8 countries, dominated by 6 universities and 4 research organizations. However, there is a strategic industrial presence with 2 SMEs (17% industry ratio), and the coordinator is Fraunhofer, a leading applied research organization, indicating a strong bridge between lab discovery and industrial application.
Contact Fraunhofer Gesellschaft zur Förderung der Angewandten Forschung
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