Radio transceiver device embeds channel estimation symbols in data packets to mitigate overlapping basic service set interference.
Radio base station assigns distinct transmission time interval lengths to user terminals multiplexed in the power domain.
Segmenting user terminals into random access and broadcast groups reduces signaling overhead and power consumption in 5G mMTC networks.
A femtocell adapts downlink transmission power to redirect interfering mobile entities to other cells.
Partitioning applications into tasks allows selective offloading to reduce latency and power consumption while maintaining reliability in wireless networks.
A flexible DRX cycle management method reduces UE power consumption by prioritizing the original serving beam pair and performing measurements only when necessary.
A synchronizing device adjusts refresh intervals to transmit requests simultaneously across multiple soft-state dialogues.
A mobile device wake-up area uses voltage comparison to detect human touch for simultaneous activation and unlocking.
A closed loop power control system adjusts output power levels dynamically using feed forward and feedback units.
Separate power boosts applied to phase-tracking reference signal ports compensate for oscillator phase noise in multi-layer uplink transmissions.
Wireless devices adjust transmit power levels based on network topology changes to reduce uplink interference and unnecessary power consumption.
Low power Wi-Fi devices selectively listen to access point beacons using Target Wake Time intervals.
Dynamic C-DRX cycles and periodic wake-up signals reduce power consumption while maintaining low latency for XR devices.
A centralized IPM system dynamically adjusts network device feature sets to match available power budgets.
Segmenting the radio control circuit allows smartphone detection while keeping standby power under 0.5 W.
A first user equipment configures dedicated or non-dedicated resources to transmit inter-UE coordination messages via sidelink channels.