A terminal transitions between RRC inactive and idle states based on cell suitability.
A User Equipment applies a common Discontinuous Reception configuration to align multiple DRX cycles.
User equipment measures timing offsets between base stations to coordinate frame synchronization despite non-ideal backhaul constraints.
Using independent power control parameter sets with specific path loss reference signals to ensure reliable SRS reception by neighboring cells.
Symbol level interference detection drives dynamic scheduling and MCS adjustments, reducing retransmissions and boosting downstream traffic efficiency.
Devices transmit coded sync packets in designated time slots and enter sleep mode, reducing energy consumption while maintaining reliable synchronization.
A low-power wake-up radio modulates bit sequences with 1x symbol pulses to multiplex signals within OFDMA frames.
Alternating scan and rest cycles dynamically adjusts frequencies to minimize redundant scans and reduce power consumption.
A signal amplifying device uses a baseband module and user identification interface to manage synchronization and power states across radio access technologies.
An inactive state allows a terminal to move between cells using reselection, reducing signaling overhead by skipping traditional switching procedures.
A method adjusts uplink power levels for user endpoint devices during satellite handovers in non-terrestrial networks.
A base station directs mobile stations to measure specific radio qualities based on battery state and network load.
Dynamic NB-IoT power control mitigates inter-cell interference in dense small cell deployments by adjusting NPRACH parameters based on coverage levels.
A base station transmits a downlink reference signal to regulate peer-to-peer terminal transmission power levels.
A mobile station uses a neighbor database to skip home PLMN searches when roaming far from the home network.
A wireless device switches antennas while adjusting transmission power to identify the optimal antenna for data communication.
Postponing sidelink resource monitoring reduces energy waste during jitter while maintaining reliable data transmission.
A processing device generates a medium access schedule based on transceiver parameters to synchronize downstream devices.
Proxy devices perform energy-intensive wireless scanning to extend battery life on small Bluetooth low-energy devices.
A configurable codebook filters dual-polarized beams using received power thresholds to optimize channel state information reporting.
Configures slot offsets K0, K2, and A-CSI-RS triggering parameters to switch terminal devices between energy-saving and low-latency modes.
A geo-fence event coalescing system buffers location triggers during conservation periods and delivers them to applications during scheduled execution windows.
A wake-up signal instructs user equipment to skip the next discontinuous reception ON duration, allowing the device to remain in sleep mode.
Comparing adjacent sub-channel energy levels determines DTV channel availability, reducing neighbor discovery delay in smart grid networks.
MME allocates device-to-device resources via tracking area update accept messages to enable uplink transmissions.
User equipment selects and activates micro base stations based on broadcast backhaul link information.
Uplink Physical Channel Control messages carry specific power control parameters to resolve incomplete 3GPP protocol configurations for timely updates.
A user equipment dynamically adjusts channel state information reporting priority based on discontinuous reception states.
Mesh network routes user feedback to edge transceivers, enabling dynamic IBOC power control that improves signal coverage while reducing analog interference.
A terminal device monitors the physical downlink control channel within an on-duration time period of a discontinuous reception state.
A distributed wireless network uses a multiscale protocol to manage interference through local signal maps and exclusion regions.
Transform precoders using impedance-based matrices to ensure equal transmit power across coupled antenna arrays.
Segmenting UWB data reception across multiple antenna sets resolves the trade-off between high position measurement accuracy and low power consumption.
User equipment provides assistance information to the evolved Node B for wireless communication reconfiguration.
Dynamic antenna configuration reduces power consumption while maintaining required data transmission rates.