Next Generation Sequencing Libraries
A sequencing library, next-generation technology, applied in the field of preparing next-generation sequencing libraries containing overlapping DNA fragments and sequencing one or more target nucleic acids, can solve problems such as performance and quality degradation, saturated output capacity, etc., to achieve reduced sequencing time, effect of time reduction
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Embodiment 1
[0257] Example 1 - Comparison to Illumina MiSeq
[0258] During the development of the technology presented herein, calculations were performed to compare the technology presented here (Tables 1 and 2, "SOD Libraries") with the conventional technology provided by Illumina in the MiSeq platform (Tables 1 and 2, "Illumina Amplicon Libraries") ”) performance. Data were collected from two scripts that differed, for example, in the number of samples per run, the standard used to measure throughput, etc. (see Tables 1 and 2).
[0259] As shown in Tables 1 and 2, the technology described herein reduces instrument run time, has higher throughput and produces a higher percentage of reads with a mass score greater than Q30 relative to NGS library construction using Illumina technology.
[0260] Table 1 - Comparison to Illumina MiSeq (Targeted Sequencing: Amplicon Panel)
[0261]
[0262] a) MiSeq Reagent Kit v2: duplex scanning, 12–15 million cluster-pass filters
[0263] b) To co...
example 2
[0276] Example 2 – Comparison to Ion Torrent PGM (Targeted Sequencing: Amplicon Panel)
[0277] During the development of the technology presented herein, calculations were performed to compare the technology presented here (Tables 3 and 4, "SOD Libraries") with the conventional technology provided by Ion Torrent in the PGM platform (Tables 3 and 4, "Ion Amplicon library") performance. Data were collected from two scripts that differed, for example, in the number of samples per run, the standard used to measure throughput, etc. (see Tables 3 and 4).
[0278] As shown in Tables 3 and 4, the techniques described herein reduce instrument run time and generate a higher percentage of reads with quality scores greater than Q20 relative to NGS library construction using Ion Torrent technology.
[0279] Table 3 - Comparison with Ion Torrent PGM
[0280]
[0281] a) PGM 400 bp Sequencing Kit v2
[0282] b) To cover the entire 400 bp amplicon, perform 1 × 400 bp bidirectional sequ...
example 3
[0295] Example 3 - Comparison of Long Read Techniques
[0296] Tables 5 and 6 compare the performance of the techniques presented herein with conventional techniques for sequencing long amplicons of approximately 1000 bp (Table 5) and 2000 bp (Table 6). Run time for this technique does not increase with amplicon size, as the read size is always ~30–50 bases regardless of the size of the target nucleic acid being sequenced. In some embodiments, the techniques provided herein generate 2000-bp sequences in an order of magnitude less time than conventional techniques (see, eg, Table 6). In some embodiments, the techniques provided herein provide longer sequence reads in the same runtime as conventional techniques.
[0297] Table 5 - Comparison of long amplicon sequencing 1000 bp
[0298] SOD library a
Illumina TruSeq Libraries Ion gDNA library Number of samples / run 8 8 1 Number of amplicons / sample 50 50 50 Average size of amplicons (bp) ...
PUM
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