Symbol-Encoded FEC Transport for Low-Latency Error Correction

The patent applies preliminary action by generating FEC codes from the data stream before symbol encoding occurs. The FEC generator creates redundancy bits that are then encoded into symbols along with the data. This preliminary error correction setup allows the receiver to detect and correct errors that occur during transmission, preventing single bit errors from propagating into multiple bit errors through symbol decoding.

The patent implements beforehand cushioning by inserting FEC parity bits into the data stream before symbol encoding. These parity bits act as a protective cushion against transmission errors. When errors occur during transmission, the FEC decoder at the receiver can use these pre-positioned parity bits to cushion against the harmful effects of symbol corruption, correcting errors before they propagate through the decoding process.

The patent applies parameter changes by modifying the FEC code parameters to match the symbol encoding structure. Instead of using fixed complex codes, the system configures the FEC generator to create parity bits that are integrated into the symbol stream at specific intervals. This parameter adjustment allows simpler Hamming codes to achieve byte-level error correction by aligning the FEC block size with the symbol structure, reducing complexity while maintaining reliability.

The patent uses copying by replicating the FEC encoding process across multiple data blocks in a systematic manner. Rather than implementing a single complex FEC scheme, the system applies simplified FEC codes repeatedly across segmented data streams. This copying approach distributes the error correction function across multiple simpler instances, achieving robust byte error correction without requiring high complexity in any single encoder or decoder unit.

The patent applies merging by combining the data stream and FEC parity bits into a unified symbol stream for transmission. The FEC generator integrates parity bits with data bits, and the symbol encoder converts this combined stream into transmission symbols. At the receiver, the symbol decoder extracts both data and parity symbols, and the FEC decoder processes them together to correct errors. This merging eliminates the need for separate transmission channels, improving efficiency while the systematic extraction and processing maintain manageable complexity.

The patent uses segmentation by dividing the combined data and parity symbol stream into manageable blocks for FEC decoding. The receiver segments the incoming symbol stream to identify data symbols and parity symbols, processing them in organized groups. This segmentation allows the FEC decoder to handle the combined stream systematically, correcting errors in data blocks using their corresponding parity blocks without being overwhelmed by the integrated nature of the transmission stream.