Imagine if every robot or car had its own tiny, super-powerful internet bubble inside it. Instead of relying on a distant cell tower, devices inside a machine could talk to each other instantly without any lag. It's like moving from a giant city-wide Wi-Fi to a dedicated high-speed lane just for the parts of a single machine.
Current wireless technologies cannot meet the extreme latency and data rate requirements needed inside complex entities like robots or vehicles without high energy costs.
The project developed designs for physical layers, MAC protocols, and radio resource management for short-range subnetworks, validated in lab settings.
If you are a robotics manufacturer dealing with communication delays between sensors and actuators — this project developed in-X subnetworks that provide extreme reliability and low latency. This ensures precise movement and synchronization within production modules.
If you are a connected vehicle developer dealing with massive data loads between internal car components — this project developed short-range radio cells that support extreme data rates. This allows high-speed data exchange within the vehicle entity.
If you are a smart classroom integrator dealing with unstable connectivity for many simultaneous devices — this project developed localized subnetworks that bring wireless pervasiveness to a level never experienced before. This ensures seamless connectivity for all students and tools in a classroom.
Based on available project data, the project aims to achieve performance requirements at a lower cost and energy consumption than current state-of-the-art technologies, though specific pricing is not provided.
Based on available project data, the project is at a low technology readiness level, targeting at most level 4, meaning it is validated in a lab and not yet ready for full industrial scale.
The project results will be disseminated via scientific publications and intended for future 6G standardization work, which typically influences how the technology is licensed in future equipment.
The project runs from 2023-03-01 to 2025-08-31, focusing on the design and analysis phase before moving toward 6G standardization.
The technology is designed as an 'in-X subnetwork' that acts as a component of the broader 6G 'network of networks' vision.
The consortium is heavily weighted toward industry, with 7 out of 12 partners (58%) being industrial entities. This suggests a strong focus on practical application and a direct link to the value chain of wireless communications, supported by 3 universities and 2 research centers across 9 countries.
Contact Aalborg Universitet (DK) for technical details on in-X subnetwork design.
Contact us to identify licensing opportunities for 6G short-range radio components.
