Imagine sending a secret message where the ink disappears if anyone tries to peek at it. This project uses special light particles that are linked across vast distances to create a super-secure internet. Instead of just simple signals, they are packing more information into each particle to make the connection faster and tougher against interference.
Current quantum communication is limited to short distances via fiber or air. Existing long-distance methods lack the capacity and noise resilience needed for a practical, global quantum internet.
The project is developing noise-resilient quantum state encoding, photonic integrated light sources, and a technology roadmap for a Canada-Europe quantum link.
If you are a security provider dealing with the risk of eavesdropping on long-distance data, this project developed high-dimensional entangled photon protocols that increase resilience against noise and hacking. This allows for physics-based secure data transmission over intercontinental distances.
If you are a satellite builder dealing with limited space and power on orbit, this project developed the transfer of quantum protocols into scalable photonic integration platforms. This enables the deployment of quantum communication on small-scale satellite platforms.
If you are a financial institution dealing with the need for perfect timing across global markets, this project developed a roadmap for a global quantum network. This enables significantly more accurate clock synchronization for time-sensitive transactions.
Based on available project data, specific pricing or cost figures are not provided, though the project aims to use low-cost scalable photonic integration platforms.
Yes, the project specifically targets the use of scalable small-scale satellite platforms and photonic integration to move beyond laboratory experiments toward a global network.
Based on available project data, there is no specific information regarding the licensing terms or patent status of the developed quantum protocols.
The project runs from 2022-10-01 to 2026-03-31, focusing on providing a technology roadmap for an intercontinental network between Canada and Europe.
The project focuses on transferring protocols into photonic integrated platforms to ensure they are compatible with scalable small satellite hardware.
The consortium is heavily weighted toward academic and research institutions, with 6 universities and 2 research organizations. There is limited industrial presence with only 1 industry partner (11% ratio), suggesting the project is currently focused on fundamental technical breakthroughs and protocol development rather than immediate commercialization.
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