Modified sequences combine base and antenna channel estimation data to enable accurate multi-terminal discrimination without increasing preamble length.
Hardware replay buffer records payload interruption points to resume fragmented packets, reducing latency while maintaining throughput.
Wireless communication system segments carriers into uplink, downlink, and protection resource units to mitigate interference from rapid data traffic changes.
A secure RF ranging system assesses noise characteristics in the Channel Impulse Response to detect distance decreasing attacks.
OTFS modulation transforms time-varying multipath channels into stationary delay-Doppler representations, simplifying interference mitigation.
Rate matching around LTE CRS patterns prevents DMRS collisions, improving channel estimation accuracy in shared spectrum.
Discrete precoding symbols constrain intrinsic interference to known values, enabling coherent channel estimation while reducing transmit power.
A signal detector generates trial sequences to minimize channel response between adjacent received signals in OFDM systems.
A transmitting device drives wires to multiple voltage levels using control symbols to encode data efficiently.
A randomized Zadoff-Chu sequence with cell-specific phase rotation reduces control channel interference in mobile networks.
A processor-implemented method decodes overlapping wireless messages by estimating data symbols and channel impulse responses in two signal recovery phases.
A transmitter inserts reserved tones at positions that do not overlap pilots in OFDM frames.
A first device transmits a neural network capability indication to receive a corresponding channel state feedback configuration.
Dynamic tone reservation remapping adjusts signal distribution according to measured clipping and quantization distortion levels.
Generative adversarial networks create synthetic training data to resolve the contradiction between high data quantity requirements and acquisition complexity.
Dynamic seed switching resolves conflicts between joint transmission and non-CoMP scenarios, enhancing blind detection while reducing signaling overhead.
A method to identify performance bounds of transmit-receive modules by measuring isolation and insertion loss.
Steep signal transitions minimize timing differences between paired lines, reducing electromagnetic interference that affects cellular receivers.