Segmented transport blocks combine turbo and RS coding to correct residual errors, cut retransmissions, and achieve very low BLER.
Duplicating and shuffling DCM-encoded subcarriers across MRUs improves WLAN frequency diversity, spectrum use, and coverage range.
Variable-length LDPC coding uses adaptive block sizes and parity-check matrices to improve 5G data reliability and throughput under noise.
New header fields let receivers identify 802.11ad and 802.11ay packets early, cutting ambiguity, complexity, and power use.
Maps consecutive constellation points to nonadjacent tones across 80 MHz building blocks to cut burst errors and sustain WLAN throughput.
Modified LDPC lifting breaks multiple-Z constraints to support more code lengths and rates while improving error floor behavior.
Dynamic LDPC block sizing and padding support varied input lengths and coding rates while preserving reliable mobile data transmission.
Variable lifting in the LDPC parity-check matrix supports multiple codeword lengths and rates without major error-correction loss.
Relative angle estimation lets Bluetooth devices auto-select and reconnect to the target in a specific direction, avoiding manual search in crowded setups.
Aggregating multiple WLAN resource units into a virtual RU enables joint encoding, higher throughput, and better link quality under punctured spectrum.
When initial WLAN packets fail, retransmitting with a more robust MCS and combining soft metrics improves decoding success and throughput.
Bridged capacitor banks with test-sequence bridge estimation improve SAR ADC gain matching while reducing power and silicon area.
A segmented LDPC parity check matrix supports variable block sizes and coding rates to improve 5G decoding throughput and reliability.
A secondary link learns and selectively updates compression rules, preserving primary-link throughput and adapting faster to changing data flows.
Wireless light modules use signal time-of-flight to self-locate, enabling hub-free smart lighting that avoids switch-dependent failures.
Non-uniform compressed sensing cuts PPG sensor power and bandwidth while preserving full-band reconstruction under packet loss.
Golay STF cross-correlation distinguishes 802.11ad and 802.11ay packets early, letting legacy receivers drop incompatible frames and save power.
By splitting received MIMO signals into sub-vectors, this decoder cuts computational load while preserving decoding quality and diversity order.
Maps constellation points to nonadjacent tones across 80 MHz blocks to support 240/320 MHz WLAN with higher throughput and fewer burst errors.
Compact PVQ mapping reconstructs subband residual vectors on demand, cutting codebook storage while preserving lossless audio decoding.
A configurable LDPC parity check matrix balances error correction and decoder throughput across variable code lengths and rates.
LC-tuned metamaterial transmission lines and a transformer help a differential power amplifier maintain impedance matching and linear gain across 5G bands.
Sub-stream CRC checks and frame fallback keep UHD wireless video stable under poor channel conditions with minimal image degradation.
Modified LDPC lifting relaxes multiple-Z constraints to support more code lengths while improving cycle characteristics and error floor behavior.
Selective OFDM signal-pair filtering improves blind residual CFO estimation in 16-QAM WLANs, boosting decoding efficiency with controlled processing.