Repair packets encoded with RS or LDPC help recover lost MMT broadcast packets and preserve audio, video, subtitles, and files.
By tuning BER across bit subsets, contrast coding aligns unequal bit reliability with FEC strength to raise noise tolerance or data capacity.
Predicted space and per-terabyte cost savings are used to rank storage volumes and schedule compression where it delivers the most benefit.
Predicted space savings and per-terabyte cost guide storage volume ordering, so compression targets high-value volumes first.
Pipelined branch and path metric calculation improves symbol detection in ISI channels while reducing additions and latency.
Application-layer FEC adds source and parity packet IDs so receivers can recover lost MMT packets and preserve audio-video quality.
Soft correlation and intermediate path metrics enable circular Viterbi decoding with lower hardware and memory load while maintaining throughput.
Eye-monitor feedback switches among FEC codes as optical line quality changes, balancing error correction, power use, and latency.
PLP segmentation, LDPC coding, MIMO, and OFDM improve broadcast efficiency, robustness, and mobile reception in one RF channel.
AL-FEC parity flows protect MMT packet transmission from network loss, helping receivers recover missing data without retransmission.
A 3D stacked memory layout uses vault-based parity and through-wafer links to correct multi-bit errors and chip failures without extra chip area.
Likelihood feedback from previous-frame decoding sharpens magnetic playback extraction timing while limiting adjustment delay.
Shared branch and path metric circuitry lets one Viterbi decoder handle NRZ and PAM-4 while reducing receiver size, power, and complexity.
Receiver timing feedback adjusts video packet redundancy to recover from sync deviation while limiting unnecessary bandwidth use.
Hash codes and an optional parity lane quickly detect radiation-hit SerDes lanes, reconstruct invalid data, and cut reset-related loss.
Multi-channel FEC interleaving spreads WSS filter-induced errors across optical channels to reduce BER imbalance and preserve signal quality.