Read Mapping - EMBL

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Computational Methods
Mate-pair or paired-end mapping abnormalities Detecting Genomic Rearrangements <strong>Read</strong> depth signals Reference Split-<strong>Read</strong> alignments
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Read Mapping Tobias Rausch July 201
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Target genome Fragments Paired-End
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Paired-End Libraries R1 R2
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Mate-Pair Libraries R1 R2 R2 R1
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Read Read Mapping Reference Referen
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Genome Filtering Preprocess Index
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Read Genome Filter Algorithm Exact
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Simple k-mer Index, k=3 S = ACGAAAA
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Simple k-mer Index, k=3 S = ACGAAAA
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Searching a Read Hitlist Hitlist Hi
Page 21 and 22: • Needleman-Wunsch Pairwise Align
Page 23 and 24: • Smith-Waterman Pairwise Alignme
Page 25 and 26: Banded Alignment
Page 27 and 28: Read Mapping Reference Source: illu
Page 29 and 30: Variant Calling SNPs Short Indels S
Page 31 and 32: Set of reads SNP Calling
Page 33 and 34: Set of reads SNP Calling Reverse
Page 35 and 36: SNP Calling Variations: Indels & SN
Page 37 and 38: Variant Calling SNPs Short Indels S
Page 39 and 40: • Differentiating SNP Annotation
Page 41 and 42: GATK • Java library • Easily ex
Page 43 and 44: SAMtools mpileup • Call & Filter
Page 45 and 46: • Drosophila Generic Annotation c
Page 47 and 48: • Human Exonic Annotation chr10.f
Page 49 and 50: Variant Calling by Consensus
Page 51 and 52: SNP Call Overlap • Sample1 - 6968
Page 53 and 54: Study Design
Page 55 and 56: Raw SNP Calls, Human Genome Sample
Page 57 and 58: Computational Methods to Detect Gen
Page 59 and 60: Genomic Rearrangements • 1 Kb to
Page 65 and 66: Technologies to Discover Genomic Re
Page 67 and 68: Technologies • Fluorescent in sit
Page 69 and 70: Technologies • Fluorescent in sit
Page 71: 10 0 Focus on NGS 10 2 Sanger seque
Page 75 and 76: Mate-pair or paired-end mapping abn
Page 95 and 96: Deletion Short insertion (< Insert
Page 97 and 98: • Technical Validations Validatio
Page 99 and 100: … CATTTT [C/ T] TTTGAA … …CAT
Page 101: Target Enrichment Tobias Rausch Jul
Page 104 and 105: Technologies
Page 106 and 107: Individual Baits vs. Target Regions
Page 108 and 109: GA Lane, 50MB Kit • 37 million re
Page 110 and 111: GA Lane, 50MB Kit
Page 112 and 113: HiSeq Lane, 50MB Kit
Page 114 and 115: Independent Comparison to RefSeq
Page 116 and 117: 1000 Genomes Project
Page 118 and 119: Allelic Balance chr1, exon capture
Page 120 and 121: Allelic Balance for InDels 1bp-5bp
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Copy Number Variants
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Log2 ratio Copy Number Variants •
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Case Study HapMap Trio
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HapMap Trio • NA12878 and NA12891
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Exon Length Distribution • All ba
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NA12878 NA12891 • Mapped SOLiD re
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Avg. Coverage for each Target Illum
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GC-Content Distribution
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GC-Content Distribution
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Histogram of GC-Content of Unmapped
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59% On-target Ratio 84%
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Insert Size is very important!
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Uniform Coverage across Targets? NA
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50 random targets on chrX
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To be or not to be … the same sam
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Creating a SNP Profile EnsemblDB AP
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Read-depth Plot Comparisons • Are
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General Hints • Blood/Tumor sampl
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Illumina HiSeq 2000 DNA sequencer E
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Data Processing and Alignment: Cust
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Computed balanced barcode distribut
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• Balanced base composition • P
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Variant Calling SNPs Short Indels S
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Short InDels • Index-based read m
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Short InDels - Tools • Open-sourc
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Raw Short InDel Calls Sample #Total
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Realignment Reference: ..GACTG--TAC
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Realignment • Improves a crude, i
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ReAligner: Anson and Myers • Obje
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Derive a consensus
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Cut it out of the consensus
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ReAlignment • Using a weighted sc
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ReAlignment • Using a weighted sc
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Consensus Score
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Assembly Algorithms Tobias Rausch J
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Assembly Types • Whole genome ass
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Whole Genome Sequencing Costs
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Assembly • Input: Set of paired-e
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Dynamic programming
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Seed and Extend Approach
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Layout Phase • A simple heuristic
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Consensus Phase • Scaffold the co
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Celera Assembler: Some Statistics
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de Bruijn Graph • Reads are too s
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de Bruijn Graph - Local Sequence Si
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Choice of k • “It’s a trade-o
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K-mer Uniqueness Ratio
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• Oases Transcriptome Assembly -
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• MIRA3 Reference-based Assembly
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Read Mapping - EMBL

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