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Hiseq analysis software

Manufactured by Illumina

The HiSeq Analysis software is a bioinformatics software suite designed to analyze data generated by Illumina's HiSeq sequencing systems. The software provides tools for tasks such as alignment, variant calling, and quality control. It is optimized to handle the large data volumes produced by Illumina's high-throughput sequencing platforms.

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12 protocols using hiseq analysis software

1

Whole Genome Sequencing Data Analysis Pipeline

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Base calling and data analysis were performed using BCL2FASTQ, and data were analyzed using Illumina HiSeq Analysis Software (HAS; version 2-2.5.55.1311). Reads were mapped to the hg19 reference sequence using Isaac Genome Alignment Software (SAAC00776.15.01.27) (Illumina) and SNVs and small indel variants were called using Starling (Isaac Variant Caller; version 2.1.4.2).14 (link) WGS data will be deposited in the European Genome-Phenome Archive (http://www.ebi.ac.uk/ega/). Resulting variant calls were annotated using a custom pipeline1 (link) developed at The Centre for Applied Genomics, based on ANNOVAR.15 (link) Mitochondrial variants were converted to NC_012920 coordinates with a custom script and then annotated using MitImpact1916 (link) (version 2.4, http://mitimpact.css-mendel.it/) to identify known pathogenic variants. CNVs were called, using the read-depth method, by the programs ERDS (Estimation by Read Depth with Single-Nucleotide Variants)17 (link) and CNVnator,18 (link) using a window size of 500 base pairs. CNV size cutoffs were 1 kb for losses and 2 kb for gains. High-quality CNVs were defined as those detected by ERDS that were also detected by CNVnator with greater than 50% overlap.
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2

Whole Genome Sequencing Quality Control

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Sequencing quality control was performed by Illumina Hiseq Analysis Software and Picard package. Quality assessment metrics used in the process include mean coverage depth, total number of uniquely aligned reads, percent alignment, and mean base quality. The WGS mean coverage was ~40×. To evaluate within‐sample contamination, we used the GATK ContEst program from the Broad Institute. We set ContEst 5% as the cutoff and excluded samples above that threshold from further analysis. Sex checks were also conducted using the ratio of the number of heterozygous SNPs over the number of homozygous SNPs on chromosome X, excluding pseudo autosomal regions (chrX:1–2,700,000 and chrX:154,000,000–155,270,560). Expected values are close to zero for males and around 1–1.5 for females.
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3

Quantitative CRISPR Screen Analysis

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For data analysis, FastQ files obtained after sequencing were demultiplexed using the HiSeq Analysis software (Illumina). Single-end reads were trimmed and quality-filtered using the CLC Genomics Workbench v11 (Qiagen) and matched against sgRNA sequences from the sgRNA metabolic library. Read counts for sgRNAs were normalized against total read counts across all samples. For each sgRNA, the fold change (log2 ratio) for enrichment was calculated between each of the biological replicates and the input experiment. After merging the quantification results from two sub-libraries, candidate genes were ranked based on the average enrichment of their 6 gene-specific sgRNAs in tumor-infiltrating OT-I cells relative to input (log2 ratio (TIL/input); adjusted P < 0.05). The gene level false discovery rate adjusted P-value was calculated among multiple sgRNAs (n = 6) of each gene, using a two-tailed paired Student’s t-test between log2 transformed average normalized read counts of tumor samples and those of input sample, and the P-value was further adjusted using Bonferroni correction with gene size.
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4

Genome-scale CRISPR Screen Analysis

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For data analysis, FastQ files obtained after sequencing were demultiplexed using the HiSeq Analysis software (Illumina). sgRegnase-1 (GGAGTGGAAACGCTTCATCG) reads were removed, and single-end reads were trimmed and quality-filtered using the CLC Genomics Workbench v11 (Qiagen) and matched against sgRNA sequences from the genome-scale sgRNA Brie library. Read counts for sgRNAs were normalized against total read counts across all samples. For each sgRNA, the fold change (log2 ratio) for enrichment was calculated between each of the biological replicates and the input experiment. Gene ranking was based on the average enrichment (log2 ratio (TIL/input)) among replicates in representation of 4 individual corresponding sgRNAs in the genome-scale sgRNA Brie library. The gene level false discovery rate adjusted P-value was calculated among multiple sgRNAs (n = 4) of each gene, using a using a two-tailed paired Student’s t-test between log2 transformed average normalized read counts of tumor samples and those of input sample, and the P-value was further adjusted using Bonferroni correction with gene size.
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5

Genome-scale CRISPR Screen Analysis

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For data analysis, FastQ files obtained after sequencing were demultiplexed using the HiSeq Analysis software (Illumina). sgRegnase-1 (GGAGTGGAAACGCTTCATCG) reads were removed, and single-end reads were trimmed and quality-filtered using the CLC Genomics Workbench v11 (Qiagen) and matched against sgRNA sequences from the genome-scale sgRNA Brie library. Read counts for sgRNAs were normalized against total read counts across all samples. For each sgRNA, the fold change (log2 ratio) for enrichment was calculated between each of the biological replicates and the input experiment. Gene ranking was based on the average enrichment (log2 ratio (TIL/input)) among replicates in representation of 4 individual corresponding sgRNAs in the genome-scale sgRNA Brie library. The gene level false discovery rate adjusted P-value was calculated among multiple sgRNAs (n = 4) of each gene, using a using a two-tailed paired Student’s t-test between log2 transformed average normalized read counts of tumor samples and those of input sample, and the P-value was further adjusted using Bonferroni correction with gene size.
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6

CRISPR Screening Data Analysis Workflow

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For data analysis, raw FASTQ files obtained after sequencing were demultiplexed using the HiSeq Analysis software (Illumina), as described (Wei et al., 2019 (link)). Single-end reads were trimmed and quality-filtered using the CLC Genomics Workbench v.11 (Qiagen) and matched against sgRNA sequences from the sgRNA metabolic library. Read counts for sgRNAs were normalized against total read counts across all samples. For each sgRNA, the fold change (FC; log2-transformed ratio) for enrichment was calculated between each of the biological replicates and the input experiment. After merging the quantification results from two sub-libraries, the FC (log2-transformed ratio) of genes was calculated on the basis of the average enrichment of their six gene-specific sgRNAs. The gene-level false-discovery-rate (FDR)-adjusted P value was calculated among multiple sgRNAs (n = 6) of each gene, using a two-tailed paired Student’s t-test between log2-transformed average normalized read counts of MP samples and those of TE samples, between counts of MP samples and those of input sample, or between counts of TE samples and those of input sample. The P value was further adjusted using Bonferroni correction with gene size. The FC and P value of 1,000 negative control sgRNAs were calculated accordingly.
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7

CRISPR Pooled Screen Data Analysis

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For data analysis, FastQ files obtained after sequencing were demultiplexed using the Hi-Seq Analysis software (Illumina). Single-end reads were trimmed and quality-filtered using the CLC Genomics Workbench v11 (Qiagen) and matched against sgRNA sequences from the sgRNA metabolic library. Read counts for sgRNAs were normalized against total read counts across all samples. For each sgRNA, the fold change (log2 ratio) for enrichment was calculated between each of the biological replicates and the input experiment. Gene ranking was based on the average enrichment among replicates in representation of 6 individual corresponding sgRNAs (combining two sub-libraries) in sgRNA metabolic sub-libraries, respectively. The gene level false discovery rate (FDR) adjusted P value was calculated among multiple sgRNAs of each gene, using a paired two-tailed t-test between log2 transformed average normalized read counts of Tfh cell (CXCR5+SLAM), Th1 cell (CXCR5SLAM+) or input cell samples, and a value of less than 0.05 was considered to be statistically significant.
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8

Normalized cDNA Sequencing Protocol

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Indexed cDNA libraries were normalized to 2nM and pooled together in equal volumes. The clustering of pooled cDNA libraries was performed on a cBot Cluster Generation System (Illumina, USA) according to the vendor's instructions. After cluster generation, the cDNA library was sequenced on a HiSeq™2000 platform (Illumina, USA) and 50 bp single reads were generated. Raw sequencing reads were obtained using Illumina HiSeq Analysis Software and stored in FASTQ format.
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9

RNA-seq library preparation and sequencing

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RNA-seq libraries were prepared using Ion Total RNA-Seq Kit v.2. Libraries were sequenced onto P1 chips from Ion Torrent as unpaired to reach 40 million reads for each sample. Raw sequencing files (FASTQ) were validated using FASTQC v.0.11.7.
Base calling for WGS was performed using Illumina HiSeq Analysis Software (v.2––2.5.55.1311). Reads were mapped to the b37 reference sequence. See Supplemental Information for details.
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10

Epigenetic CRISPR Screen Data Analysis

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For data analysis, raw FASTQ files obtained after sequencing were demultiplexed using the HiSeq Analysis software (Illumina). Single-end reads were trimmed and quality-filtered using the CLC Genomics Workbench v.11 (Qiagen) and matched against sgRNA sequences from the sgRNA epigenetic library. Read counts for sgRNAs were normalized against total read counts across all samples. For each sgRNA, the fold change (log2-transformed ratio) for enrichment was calculated between each of the biological replicates and the input experiment. The gene-level false-discovery-rate (FDR)-adjusted p value was calculated among multiple sgRNAs (n=6) of each gene, using a two-tailed paired Student’s t-test between log2-transformed average normalized read counts of MP samples and those of TE samples, between counts of total day 7.5 samples and those of total day 36 samples.
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