Terminal selects time units and physical channels for uplink signals using repeated DCI messages to resolve scheduling complexity.
A physical uplink control channel format determines transmission rules based on UCI payload size constraints.
Base station allocates D2D resources within designated radio frames, reducing discovery latency and power consumption.
User equipment receives separate physical uplink control channel resource sets for multicast and unicast acknowledgements to determine specific feedback resources.
A user equipment method allocates physical uplink shared channel resources using sub-physical resource blocks to optimize bandwidth usage.
A method detects D2D scheduling messages in specific subframes to manage direct communication roles and power levels.
A terminal control unit performs specific processing based on newly defined Downlink Control Information for multicast data delivery.
A method transmits PUSCH within a PRACH transmission gap to maintain uplink data continuity.
A sidelink transmission method selects contiguous resource sets for feedback information to ensure reliable delivery.
Segmenting transmission directions with distinct target identities manages interference complexity in flexible duplex mode.
Independent per-symbol beamforming segments processing to improve channel state feedback accuracy while managing device complexity.
Aligning UE-specific reference signals with demodulation reference signals resolves interference measurement inaccuracies between downlink and uplink subframes.
A TCP proxy intercepts IP packets, sends simulated acknowledgements, and buffers data to reduce connection timeouts on high-latency HF radio links.
Rational number parameters configure semi-persistent scheduling to resolve latency inefficiencies caused by non-integer packet periodicity mismatches.
A terminal stores valid configuration information and sends indication data to a network side device to manage access parameters.