Interleaved bit selection enables rateless polar coding with flexible code lengths, lower decoding complexity, and finer IR-HARQ adaptation.
Information bits are split across outer-code subcodes so classic algebraic decoding can cut polar-code delay and improve throughput.
Outer-code subcodes split polar code decoding by code rate, cutting delay and improving throughput with hybrid algebraic and SC/SCL decoding.
UE capability signaling lets the network assign BICM to some constellation bits and MLC to others, improving decoding reliability with lower complexity.
Invertible polarity-based ECC cuts non-volatile memory imprint and bus power while preserving correctable data and parity.
Multiple reliability sequences are compared and reordered to improve polarized-channel ranking and coding performance under short-packet constraints.
Selecting and reordering polar-code sequences improves polarized-channel reliability order for short packets while limiting calculation complexity.
Adjusted reliability-order sequences improve polar coding accuracy and decoding performance for short and medium 5G packets with manageable complexity.
By embedding polarity indicators in invertible ECC codewords, this case cuts non-volatile memory imprint effects and avoids extra write power.
Sequence selection and reordering improve polarized-channel reliability ranking for short packets without adding high calculation complexity.
Polar code encoding replaces RAID 1 mirroring in SSD arrays to raise payload capacity while keeping reliability with lower coding complexity.
XOR-based Galois table lookup cuts Reed-Solomon decoding cycles, helping low-power processors meet tight inter-packet timing.
Encoded bit inversion and unstable-cell avoidance help PCM memory recover data despite stuck-at faults and write-cycle degradation.
Pre-computed Q and Z sequences optimize polar code reliability order accuracy, resolving complexity trade-offs in 5G short-packet transmissions.