Imagine if you could get the speed of a fiber-optic cable without actually digging a trench to lay the wire. This tech uses beams of light and special radio waves to jump data across gaps in the air. It's like creating an invisible web of high-speed connections that can automatically reroute data to keep things running fast and green.
Current 6G infrastructure faces prohibitive deployment costs for fiber and excessive energy consumption. There is a critical need for high-capacity connectivity in rural or hard-to-reach areas where traditional cabling is uneconomical.
A hybrid network system combining plasmonic sub-THz links, adaptive optical wireless links, and a Telemetry-as-a-Service fiber sensing platform.
If you are a provider dealing with the high cost of digging fiber in rural areas — this project developed a hybrid mesh of light and radio links that delivers fiber-like performance without the cables. It targets 1 terabit per second over one kilometer, making remote connectivity economically viable.
If you are an operator dealing with lag in machine-to-machine communication — this project developed a confluent edge network that reduces latency. It uses distributed MIMO and intelligent orchestration to ensure critical 6G services remain reliable and energy-efficient.
If you are a firm dealing with undetected cable failures in remote regions — this project developed a Telemetry-as-a-Service platform. It achieved a 93 percent F1 score in detecting anomalies using fiber sensing.
It lowers deployment costs by using wireless light and radio links instead of expensive fiber trenching in hard-to-reach areas. Based on available project data, it also targets very low energy consumption below 40 picojoules per bit.
The project is designing scalable mesh topologies and using standard single mode fiber. It has already demonstrated 400 gigabit coherent optical channels in experiments.
Based on available project data, the project focuses on dissemination and standardization to maximize long-term impact, but specific licensing terms are not listed.
It uses SDN/NFV control planes and Open Radio networks to unify mobile, optical, and compute resources. It supports flexible processing at different split phy points.
The project runs from 2024-01-01 to 2026-12-31, meaning the technology is currently in the research and prototype phase.
The consortium is well-balanced for commercialization, featuring a 45% industry ratio with 5 industrial partners, including 3 SMEs. The collaboration spans 8 countries and 11 partners, combining the academic research power of 6 universities (led by Chalmers Tekniska Hogskola) with practical industrial application, which reduces the gap between lab discovery and market entry.
Contact Chalmers Tekniska Hogskola AB in Sweden
Contact us to connect with the ECO-eNET consortium for early adoption of 6G transport tech.
