5G moved from FDD to TDD to improve spectrum efficiency. That move resulted in new timing issues to keep networks in sync.
What to expect from 5G-Advanced
First deployed in 2019 for mobile broadband communications, 5G is now ready for 5G-Advanced, which, for the first time, adds features focused on enterprise use cases starting with 3GPP Release 18. First outlined in 3GPP Release 18, 5G-Advanced (5.5G) (Figure 1) significantly improves network efficiency, latency, throughput, and coverage. 5G-Advanced adds evolved multiple input multiple…
Waveguides attenuate 5G mmWave signals
Pasternack has launched a new series of high-performance waveguide fixed attenuators designed specifically for millimeter-wave applications. These precision attenuators offer exceptional attenuation accuracy and low VSWR across a broad frequency range. This makes them ideal for a variety of tasks in the millimeter-wave spectrum, including power leveling, signal attenuation, and use with test equipment. The key…
Wi-Fi 7 and private 5G networks: co-existence or competition?
Integrating Wi-Fi 7 with private 5G in CPE devices can help ensure reliable, gigabit-level speeds, robust security, and centralized management across diverse deployment scenarios. Delivering high speeds and low latency, private 5G and Wi-Fi 7 (IEEE 802.11be) networks offer efficient spectrum use and robust security for a wide range of demanding applications. What are the…
Video: How should 5G, 6G evolve?
EE World spoke with Matsing’s Manish Matta and Keysight’s Roger Nichols on how 5G is evolving into business use cases and where 6G could play a role.
Can dielectric waveguide antennas boost 5G efficiency?
5G base stations rely on phased arrays to steer signals and increase data rates. Beam steering circuits, however, consume power. Using waveguides could reduce energy consumption in base stations. Waveguides are physical structures that direct electromagnetic waves from one point to another, confining energy within specific boundaries to control propagation, direction, and mode. While waveguide…
What are 5G’s, the different types, and how are they used?
5G is much more than cell phones. IoT devices, medical devices, and industrial devices can connect to networks using technologies such as TDD, network slicing, and beamforming. 5G New Radio (NR) made its long-awaited commercial debut in late 2018. Offering significantly faster speeds and greater capacity compared to 4G Long Term Evolution (LTE), 5G NR…
How mmWaves affect cables, connectors, and PCB traces
Millimeter-wave signals used in 5G networks provide wide bandwidth and high data rates. Signal losses, both over the air and through interconnects, bring design challenges.
mmWaves bring interconnect challenges to 5G and 6G
Signals in the mmWave range require extra care and more expensive components than at sub-6 GHz frequencies.
Front-end mmWave IC combines PA, LNA, and switch
mmTron announced its first single-chip front-end IC for mmWave communications. Covering 24 to 30 GHz, the TMC252 integrates a power amplifier (PA), low noise amplifier (LNA), and transmit-receive switch on a single GaN IC that is available as a die or packaged in a 5 mm x 5 mm air-cavity QFN. The TMC252 is well-suited…