Ceva, Arm, and SynaXG Innovate Energy-Efficient 5G Satellite Systems
Global, Tuesday, 4 March 2025.
Ceva collaborates with Arm and SynaXG to enhance 5G infrastructure efficiency, reducing power consumption by 20 times more than current FPGA solutions, launching a new era in sustainable connectivity.
Groundbreaking Efficiency Gains
In a significant advancement announced on March 3, 2025, the collaboration delivers a customized baseband processing solution that achieves 10 times better efficiency than traditional solutions and 20 times greater efficiency compared to FPGA-based alternatives [1]. The innovation integrates Arm’s Neoverse N2 CPUs with Ceva’s PentaG-RAN platform and SynaXG’s carrier-grade software stack, creating a comprehensive solution for next-generation wireless infrastructure [2].
Technical Architecture and Capabilities
The solution’s architecture is specifically designed to be RF front-end agnostic, enabling development across both mmWave and sub-6-GHz networks [1]. This flexibility is crucial as the wireless industry witnesses the convergence of 5G-Advanced and satellite communications, requiring more energy-efficient systems for both satellite networks and terrestrial equipment [3]. The platform incorporates various expansion interfaces, including PCIe Gen4, JESD204B, and USB 3.0, providing enhanced customization capabilities for developers [4].
Industry Impact and Future Applications
This technological breakthrough positions the consortium at the forefront of sustainable connectivity solutions. According to Mantosh Malhotra, Chief Business Officer at SynaXG, their comprehensive 5G NR software suite, combined with Arm Neoverse and Ceva’s platforms, establishes a new benchmark for efficiency in 5G-Advanced infrastructure [1]. The collaboration provides a low-risk pathway for both existing players and new entrants in wireless infrastructure to address 5G-Advanced requirements while preparing for the evolution toward 6G [5].
Market Implementation and Deployment
The solution is particularly significant for the expanding LEO satellite market, where power efficiency is crucial for sustainable operations. The technology’s ability to deliver substantial power savings while maintaining high performance makes it especially valuable for satellite communications systems where energy constraints are critical [1]. The innovation is expected to revolutionize the form factor of wireless network equipment, enabling more compact and environmentally conscious deployment options [3].