Ericsson announced on March 13, 2026, that it is moving its 6G development program from the research phase into the creation of practical, deployable network architectures. This transition marks a significant milestone in the telecommunications industry's roadmap toward the next generation of wireless connectivity. The company’s strategy centers on an AI-native foundation, where artificial intelligence is integrated into every layer of the network, from the physical radio interface to the management and orchestration systems.
According to technical specifications released by Ericsson, the AI-native approach aims to automate complex network functions that were previously managed through manual configuration or static algorithms. By utilizing machine learning at the physical layer, the 6G systems are designed to adapt in real-time to changing environmental conditions and user demands. Ericsson reported that early laboratory tests of these AI-driven radio interfaces have demonstrated a 25% improvement in spectral efficiency compared to traditional 5G-Advanced configurations.
The 6G architecture proposed by Ericsson also introduces the concept of joint communication and sensing (JCAS). This technology allows the network to function as a radar-like system, detecting the position, shape, and movement of objects without the need for dedicated sensors. Ericsson officials stated that this capability will be critical for future applications in autonomous transport and industrial automation. The company is currently collaborating with a consortium of global telecommunications operators and semiconductor manufacturers to standardize these sensing protocols within the 3GPP framework.
Energy efficiency remains a core pillar of the new development phase. Ericsson’s 6G roadmap includes the implementation of zero-energy devices and highly efficient network nodes that can enter deep-sleep modes during periods of low traffic. The company targets a 50% reduction in energy consumption per bit compared to current 5G standards. These goals are supported by the use of new spectrum bands, including the 7-15 GHz range and sub-terahertz frequencies, which provide the high bandwidth necessary for 6G services while requiring advanced beamforming techniques to manage propagation challenges.
Magnus Frodigh, Head of Ericsson Research, stated that the shift to deployable 6G technology is driven by the need for a network of networks that can seamlessly integrate terrestrial and non-terrestrial components. Ericsson’s current engagement involves over 20 major industry partners and academic institutions worldwide. The company expects the first phase of 6G standardization to conclude by late 2028, with initial commercial deployments projected for 2030. This announcement solidifies Ericsson’s position in the global race to define the technical parameters of the 6G era.