Consequently, the minimum and maximum number of bits required per OFDM symbol for each sequence can be calculated by simple mathematical manipulations.
Only the top bit-scoring significant hit for each sequence was considered.
Because of the variable compressibilities of the different sequences, individual bit rate points were determined for each sequence [15].
Gpacker uses a binary system to store sequence information, using 4 bits for each base in nucleotide data (a DNA sequence requires only 2 bits per position, but if SNP data is included, then 4 bits are necessary) and 8 bits for each amino acid in protein data (to account for the 20 possible amino acids).
To summarize in brief, the sequence and quality score were compressed to 2 bits for the sequence, 2 bits for the quality score.
Five bits at the beginning and 5 bits at the end that are from training sequence of 26 bits for each group are obtained by 16 bits (located in the center point) original sequence's performing period expanding, so there will be both 5 zero points on both sides of correlative peak value when using 16 original bits to perform correlative detecting for transmitted timeslot signal of the cell.
The bit rate for each spreading sequence is represented by b p k for k=1,…,K∗.
To distinguish sequencing errors from true biological variation, we used a bit score threshold of 200 and only the best match for each sequence.
Figure 10 Bit portions for parity, motion vectors, slice header, and key frame for each sequence.
Encoding bits and another five image quality indices including PSNR_, PSNR_, PSNR_Y, PMOS_SSIM, and PMOS_PSNR are compared for each sequence.
