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illumina inc bulk pcr miseq sequencing
CAG frequency distributions obtained by <t>MiSeq</t> or PacBio SMRT sequencing of <t>bulk-PCR</t> products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼110 CAGs. MiSeq sequencing data in white and PacBio SMRT sequencing data in grey. The dotted line on the MiSeq sequencing data panels indicates 123 CAGs, which is the theoretical maximum number of CAGs that could have been sequenced using the PCR primer pair (31329/33934) and a 400 nt MiSeq read.
Bulk Pcr Miseq Sequencing, supplied by illumina inc, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/result/bulk pcr miseq sequencing/product/illumina inc
Average 86 stars, based on 1 article reviews
Price from $9.99 to $1999.99
bulk pcr miseq sequencing - by Bioz Stars, 2022-11
86/100 stars

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1) Product Images from "Approaches to Sequence the HTT CAG Repeat Expansion and Quantify Repeat Length Variation"

Article Title: Approaches to Sequence the HTT CAG Repeat Expansion and Quantify Repeat Length Variation

Journal: Journal of Huntington's Disease

doi: 10.3233/JHD-200433

CAG frequency distributions obtained by MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼110 CAGs. MiSeq sequencing data in white and PacBio SMRT sequencing data in grey. The dotted line on the MiSeq sequencing data panels indicates 123 CAGs, which is the theoretical maximum number of CAGs that could have been sequenced using the PCR primer pair (31329/33934) and a 400 nt MiSeq read.
Figure Legend Snippet: CAG frequency distributions obtained by MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼110 CAGs. MiSeq sequencing data in white and PacBio SMRT sequencing data in grey. The dotted line on the MiSeq sequencing data panels indicates 123 CAGs, which is the theoretical maximum number of CAGs that could have been sequenced using the PCR primer pair (31329/33934) and a 400 nt MiSeq read.

Techniques Used: Sequencing, Polymerase Chain Reaction

SP-PCR can detect very large HTT CAG somatic expansions (≥90 CAGs) that cannot be detected using bulk-PCR approaches. A) Representative small pool PCR autoradiograph from 150 pg template DNA obtained for the striatum of the 117-week-old R6/2 mouse with ∼55 CAGs. The number of CAG repeats, equivalent to each molecular weight marker (left) and the boundaries of the categories represented in panel A (right), is indicated. The boundaries of the categories represented in panel A (right) are also indicated by white dashed lines. B) Percentage of large (≥70 CAGs) HTT CAG somatic expansions detected by SP-PCR (black to white gradient), or bulk-PCR capillary electrophoresis (black), bulk-PCR MiSeq (white), bulk-PCR PacBio SMRT (grey) in the striatum of the 117-week-old R6/2 mouse with progenitor allele ∼55 CAGs. C: HTT CAG somatic expansions > 90 CAGs from panel B. Error bars indicate the 95% confidence intervals (they could not be estimated for the bulk-PCR capillary electrophoresis because the fluorescence units measured cannot be transformed into a count of PCR products detected).
Figure Legend Snippet: SP-PCR can detect very large HTT CAG somatic expansions (≥90 CAGs) that cannot be detected using bulk-PCR approaches. A) Representative small pool PCR autoradiograph from 150 pg template DNA obtained for the striatum of the 117-week-old R6/2 mouse with ∼55 CAGs. The number of CAG repeats, equivalent to each molecular weight marker (left) and the boundaries of the categories represented in panel A (right), is indicated. The boundaries of the categories represented in panel A (right) are also indicated by white dashed lines. B) Percentage of large (≥70 CAGs) HTT CAG somatic expansions detected by SP-PCR (black to white gradient), or bulk-PCR capillary electrophoresis (black), bulk-PCR MiSeq (white), bulk-PCR PacBio SMRT (grey) in the striatum of the 117-week-old R6/2 mouse with progenitor allele ∼55 CAGs. C: HTT CAG somatic expansions > 90 CAGs from panel B. Error bars indicate the 95% confidence intervals (they could not be estimated for the bulk-PCR capillary electrophoresis because the fluorescence units measured cannot be transformed into a count of PCR products detected).

Techniques Used: Polymerase Chain Reaction, Autoradiography, Molecular Weight, Marker, Electrophoresis, Fluorescence, Transformation Assay

Qualitative assessment of somatic mosaicism comparing CAG frequency distributions obtained by capillary electrophoresis, MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼55 CAGs. Capillary electrophoresis data in black, MiSeq sequencing data in white and PacBio SMRT sequencing data in grey.
Figure Legend Snippet: Qualitative assessment of somatic mosaicism comparing CAG frequency distributions obtained by capillary electrophoresis, MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼55 CAGs. Capillary electrophoresis data in black, MiSeq sequencing data in white and PacBio SMRT sequencing data in grey.

Techniques Used: Electrophoresis, Sequencing, Polymerase Chain Reaction

Representative sequence alignments of the 400 nt MiSeq reads (A and B), PacBio CCS reads (C and D) and PacBio subreads (E and F) uniquely aligned (i.e., reads not discarded post alignment) to a synthetic reference sequence with 115 CAGs. Alignments shown correspond to 30 sequencing reads obtained from the tail at weaning of the 20-week-old mouse with ∼110 CAGs. The part of the alignment shown corresponds to the four nucleotides in the immediate 5’–flank of the HTT CAG repeat, followed by the first 20 CAGs (A, C and E), as well as the last 7 CAGs followed by (CAACAG) 1 (CCGCCA) 1 (CCG) 7 (CCT) 2 and the four nucleotides in the immediate 3’-flank of that sequence (B, D and F). Note that the last nucleotide sequenced for the sample with the 400 nt MiSeq reads end was the first C of the seventh CCG (B). The white box on the right-hand side of panel B represents the part of the PCR products containing 115 CAGs that could not be sequenced using 400 nt MiSeq reads.
Figure Legend Snippet: Representative sequence alignments of the 400 nt MiSeq reads (A and B), PacBio CCS reads (C and D) and PacBio subreads (E and F) uniquely aligned (i.e., reads not discarded post alignment) to a synthetic reference sequence with 115 CAGs. Alignments shown correspond to 30 sequencing reads obtained from the tail at weaning of the 20-week-old mouse with ∼110 CAGs. The part of the alignment shown corresponds to the four nucleotides in the immediate 5’–flank of the HTT CAG repeat, followed by the first 20 CAGs (A, C and E), as well as the last 7 CAGs followed by (CAACAG) 1 (CCGCCA) 1 (CCG) 7 (CCT) 2 and the four nucleotides in the immediate 3’-flank of that sequence (B, D and F). Note that the last nucleotide sequenced for the sample with the 400 nt MiSeq reads end was the first C of the seventh CCG (B). The white box on the right-hand side of panel B represents the part of the PCR products containing 115 CAGs that could not be sequenced using 400 nt MiSeq reads.

Techniques Used: Sequencing, Polymerase Chain Reaction

Method summary for somatic mosaicism quantification at the level of a single molecule in HD. A) Generalised schematics for CRISPR/Casp9-mediated targeted enrichment of HTT locus for single-molecule long-read sequencing (i.e., no-amp targeted sequencing). Following DNA fragmentation and DNA molecule protection by adapter ligation or de-phosphorylation, CRISPR/Cas9 and locus-specific guide RNAs are used to selectively cut across the region of interest. While undigested DNA fragment ends are still protected, sequencing adapters are ligated to the Cas9 digestion product. Sequencing is then done on the appropriate single-molecule long-read sequencing platform such as PacBio SMRT or Oxford Nanopore Technologies (ONT). No-amp targeted sequencing studies of repeat expansions have used one or two Cas9 cuts with PacBio sequencing [ 31, 49, 57, 59 ] or ONT sequencing [ 58 ] respectively. Single-molecule sequencing read output can then be used to build the somatic mosaicism profile. B) The general method for amplicon sequencing of barcoded single molecules. Several methods for single-molecule barcoding exist, including one-cycle PCR using hairpin-protected primers with degenerate tags or region capture by barcoded molecular inversion probes. Following barcoding, sequencing adapters are incorporated into the uniquely tagged molecules through PCR with overhang primers. The resulting amplicon library is then sequenced on the platform of interest, including Illumina MiSeq or PacBio, depending on the amplicon length and the desired throughput. Resulting reads are grouped by barcode family, and the repeat length of the original molecule for each family is determined to build the real somatic mosaicism profile per sample.
Figure Legend Snippet: Method summary for somatic mosaicism quantification at the level of a single molecule in HD. A) Generalised schematics for CRISPR/Casp9-mediated targeted enrichment of HTT locus for single-molecule long-read sequencing (i.e., no-amp targeted sequencing). Following DNA fragmentation and DNA molecule protection by adapter ligation or de-phosphorylation, CRISPR/Cas9 and locus-specific guide RNAs are used to selectively cut across the region of interest. While undigested DNA fragment ends are still protected, sequencing adapters are ligated to the Cas9 digestion product. Sequencing is then done on the appropriate single-molecule long-read sequencing platform such as PacBio SMRT or Oxford Nanopore Technologies (ONT). No-amp targeted sequencing studies of repeat expansions have used one or two Cas9 cuts with PacBio sequencing [ 31, 49, 57, 59 ] or ONT sequencing [ 58 ] respectively. Single-molecule sequencing read output can then be used to build the somatic mosaicism profile. B) The general method for amplicon sequencing of barcoded single molecules. Several methods for single-molecule barcoding exist, including one-cycle PCR using hairpin-protected primers with degenerate tags or region capture by barcoded molecular inversion probes. Following barcoding, sequencing adapters are incorporated into the uniquely tagged molecules through PCR with overhang primers. The resulting amplicon library is then sequenced on the platform of interest, including Illumina MiSeq or PacBio, depending on the amplicon length and the desired throughput. Resulting reads are grouped by barcode family, and the repeat length of the original molecule for each family is determined to build the real somatic mosaicism profile per sample.

Techniques Used: CRISPR, Sequencing, Ligation, De-Phosphorylation Assay, Amplification, Polymerase Chain Reaction

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    Illumina Inc miseq bulk 2
    Miseq Bulk 2, supplied by Illumina Inc, used in various techniques. Bioz Stars score: 99/100, based on 2 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/miseq bulk 2/product/Illumina Inc
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    illumina inc bulk pcr miseq sequencing
    CAG frequency distributions obtained by <t>MiSeq</t> or PacBio SMRT sequencing of <t>bulk-PCR</t> products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼110 CAGs. MiSeq sequencing data in white and PacBio SMRT sequencing data in grey. The dotted line on the MiSeq sequencing data panels indicates 123 CAGs, which is the theoretical maximum number of CAGs that could have been sequenced using the PCR primer pair (31329/33934) and a 400 nt MiSeq read.
    Bulk Pcr Miseq Sequencing, supplied by illumina inc, used in various techniques. Bioz Stars score: 90/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/bulk pcr miseq sequencing/product/illumina inc
    Average 90 stars, based on 1 article reviews
    Price from $9.99 to $1999.99
    bulk pcr miseq sequencing - by Bioz Stars, 2022-11
    90/100 stars
      Buy from Supplier

    Image Search Results


    CAG frequency distributions obtained by MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼110 CAGs. MiSeq sequencing data in white and PacBio SMRT sequencing data in grey. The dotted line on the MiSeq sequencing data panels indicates 123 CAGs, which is the theoretical maximum number of CAGs that could have been sequenced using the PCR primer pair (31329/33934) and a 400 nt MiSeq read.

    Journal: Journal of Huntington's Disease

    Article Title: Approaches to Sequence the HTT CAG Repeat Expansion and Quantify Repeat Length Variation

    doi: 10.3233/JHD-200433

    Figure Lengend Snippet: CAG frequency distributions obtained by MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼110 CAGs. MiSeq sequencing data in white and PacBio SMRT sequencing data in grey. The dotted line on the MiSeq sequencing data panels indicates 123 CAGs, which is the theoretical maximum number of CAGs that could have been sequenced using the PCR primer pair (31329/33934) and a 400 nt MiSeq read.

    Article Snippet: Read depth must be considered when directly comparing the results obtained by bulk-PCR PacBio SMRT sequencing and bulk-PCR MiSeq sequencing.

    Techniques: Sequencing, Polymerase Chain Reaction

    SP-PCR can detect very large HTT CAG somatic expansions (≥90 CAGs) that cannot be detected using bulk-PCR approaches. A) Representative small pool PCR autoradiograph from 150 pg template DNA obtained for the striatum of the 117-week-old R6/2 mouse with ∼55 CAGs. The number of CAG repeats, equivalent to each molecular weight marker (left) and the boundaries of the categories represented in panel A (right), is indicated. The boundaries of the categories represented in panel A (right) are also indicated by white dashed lines. B) Percentage of large (≥70 CAGs) HTT CAG somatic expansions detected by SP-PCR (black to white gradient), or bulk-PCR capillary electrophoresis (black), bulk-PCR MiSeq (white), bulk-PCR PacBio SMRT (grey) in the striatum of the 117-week-old R6/2 mouse with progenitor allele ∼55 CAGs. C: HTT CAG somatic expansions > 90 CAGs from panel B. Error bars indicate the 95% confidence intervals (they could not be estimated for the bulk-PCR capillary electrophoresis because the fluorescence units measured cannot be transformed into a count of PCR products detected).

    Journal: Journal of Huntington's Disease

    Article Title: Approaches to Sequence the HTT CAG Repeat Expansion and Quantify Repeat Length Variation

    doi: 10.3233/JHD-200433

    Figure Lengend Snippet: SP-PCR can detect very large HTT CAG somatic expansions (≥90 CAGs) that cannot be detected using bulk-PCR approaches. A) Representative small pool PCR autoradiograph from 150 pg template DNA obtained for the striatum of the 117-week-old R6/2 mouse with ∼55 CAGs. The number of CAG repeats, equivalent to each molecular weight marker (left) and the boundaries of the categories represented in panel A (right), is indicated. The boundaries of the categories represented in panel A (right) are also indicated by white dashed lines. B) Percentage of large (≥70 CAGs) HTT CAG somatic expansions detected by SP-PCR (black to white gradient), or bulk-PCR capillary electrophoresis (black), bulk-PCR MiSeq (white), bulk-PCR PacBio SMRT (grey) in the striatum of the 117-week-old R6/2 mouse with progenitor allele ∼55 CAGs. C: HTT CAG somatic expansions > 90 CAGs from panel B. Error bars indicate the 95% confidence intervals (they could not be estimated for the bulk-PCR capillary electrophoresis because the fluorescence units measured cannot be transformed into a count of PCR products detected).

    Article Snippet: Read depth must be considered when directly comparing the results obtained by bulk-PCR PacBio SMRT sequencing and bulk-PCR MiSeq sequencing.

    Techniques: Polymerase Chain Reaction, Autoradiography, Molecular Weight, Marker, Electrophoresis, Fluorescence, Transformation Assay

    Qualitative assessment of somatic mosaicism comparing CAG frequency distributions obtained by capillary electrophoresis, MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼55 CAGs. Capillary electrophoresis data in black, MiSeq sequencing data in white and PacBio SMRT sequencing data in grey.

    Journal: Journal of Huntington's Disease

    Article Title: Approaches to Sequence the HTT CAG Repeat Expansion and Quantify Repeat Length Variation

    doi: 10.3233/JHD-200433

    Figure Lengend Snippet: Qualitative assessment of somatic mosaicism comparing CAG frequency distributions obtained by capillary electrophoresis, MiSeq or PacBio SMRT sequencing of bulk-PCR products obtained for different tissues of one 6-week-old and one 117-week-old R6/2 mouse with ∼55 CAGs. Capillary electrophoresis data in black, MiSeq sequencing data in white and PacBio SMRT sequencing data in grey.

    Article Snippet: Read depth must be considered when directly comparing the results obtained by bulk-PCR PacBio SMRT sequencing and bulk-PCR MiSeq sequencing.

    Techniques: Electrophoresis, Sequencing, Polymerase Chain Reaction

    Representative sequence alignments of the 400 nt MiSeq reads (A and B), PacBio CCS reads (C and D) and PacBio subreads (E and F) uniquely aligned (i.e., reads not discarded post alignment) to a synthetic reference sequence with 115 CAGs. Alignments shown correspond to 30 sequencing reads obtained from the tail at weaning of the 20-week-old mouse with ∼110 CAGs. The part of the alignment shown corresponds to the four nucleotides in the immediate 5’–flank of the HTT CAG repeat, followed by the first 20 CAGs (A, C and E), as well as the last 7 CAGs followed by (CAACAG) 1 (CCGCCA) 1 (CCG) 7 (CCT) 2 and the four nucleotides in the immediate 3’-flank of that sequence (B, D and F). Note that the last nucleotide sequenced for the sample with the 400 nt MiSeq reads end was the first C of the seventh CCG (B). The white box on the right-hand side of panel B represents the part of the PCR products containing 115 CAGs that could not be sequenced using 400 nt MiSeq reads.

    Journal: Journal of Huntington's Disease

    Article Title: Approaches to Sequence the HTT CAG Repeat Expansion and Quantify Repeat Length Variation

    doi: 10.3233/JHD-200433

    Figure Lengend Snippet: Representative sequence alignments of the 400 nt MiSeq reads (A and B), PacBio CCS reads (C and D) and PacBio subreads (E and F) uniquely aligned (i.e., reads not discarded post alignment) to a synthetic reference sequence with 115 CAGs. Alignments shown correspond to 30 sequencing reads obtained from the tail at weaning of the 20-week-old mouse with ∼110 CAGs. The part of the alignment shown corresponds to the four nucleotides in the immediate 5’–flank of the HTT CAG repeat, followed by the first 20 CAGs (A, C and E), as well as the last 7 CAGs followed by (CAACAG) 1 (CCGCCA) 1 (CCG) 7 (CCT) 2 and the four nucleotides in the immediate 3’-flank of that sequence (B, D and F). Note that the last nucleotide sequenced for the sample with the 400 nt MiSeq reads end was the first C of the seventh CCG (B). The white box on the right-hand side of panel B represents the part of the PCR products containing 115 CAGs that could not be sequenced using 400 nt MiSeq reads.

    Article Snippet: Read depth must be considered when directly comparing the results obtained by bulk-PCR PacBio SMRT sequencing and bulk-PCR MiSeq sequencing.

    Techniques: Sequencing, Polymerase Chain Reaction

    Method summary for somatic mosaicism quantification at the level of a single molecule in HD. A) Generalised schematics for CRISPR/Casp9-mediated targeted enrichment of HTT locus for single-molecule long-read sequencing (i.e., no-amp targeted sequencing). Following DNA fragmentation and DNA molecule protection by adapter ligation or de-phosphorylation, CRISPR/Cas9 and locus-specific guide RNAs are used to selectively cut across the region of interest. While undigested DNA fragment ends are still protected, sequencing adapters are ligated to the Cas9 digestion product. Sequencing is then done on the appropriate single-molecule long-read sequencing platform such as PacBio SMRT or Oxford Nanopore Technologies (ONT). No-amp targeted sequencing studies of repeat expansions have used one or two Cas9 cuts with PacBio sequencing [ 31, 49, 57, 59 ] or ONT sequencing [ 58 ] respectively. Single-molecule sequencing read output can then be used to build the somatic mosaicism profile. B) The general method for amplicon sequencing of barcoded single molecules. Several methods for single-molecule barcoding exist, including one-cycle PCR using hairpin-protected primers with degenerate tags or region capture by barcoded molecular inversion probes. Following barcoding, sequencing adapters are incorporated into the uniquely tagged molecules through PCR with overhang primers. The resulting amplicon library is then sequenced on the platform of interest, including Illumina MiSeq or PacBio, depending on the amplicon length and the desired throughput. Resulting reads are grouped by barcode family, and the repeat length of the original molecule for each family is determined to build the real somatic mosaicism profile per sample.

    Journal: Journal of Huntington's Disease

    Article Title: Approaches to Sequence the HTT CAG Repeat Expansion and Quantify Repeat Length Variation

    doi: 10.3233/JHD-200433

    Figure Lengend Snippet: Method summary for somatic mosaicism quantification at the level of a single molecule in HD. A) Generalised schematics for CRISPR/Casp9-mediated targeted enrichment of HTT locus for single-molecule long-read sequencing (i.e., no-amp targeted sequencing). Following DNA fragmentation and DNA molecule protection by adapter ligation or de-phosphorylation, CRISPR/Cas9 and locus-specific guide RNAs are used to selectively cut across the region of interest. While undigested DNA fragment ends are still protected, sequencing adapters are ligated to the Cas9 digestion product. Sequencing is then done on the appropriate single-molecule long-read sequencing platform such as PacBio SMRT or Oxford Nanopore Technologies (ONT). No-amp targeted sequencing studies of repeat expansions have used one or two Cas9 cuts with PacBio sequencing [ 31, 49, 57, 59 ] or ONT sequencing [ 58 ] respectively. Single-molecule sequencing read output can then be used to build the somatic mosaicism profile. B) The general method for amplicon sequencing of barcoded single molecules. Several methods for single-molecule barcoding exist, including one-cycle PCR using hairpin-protected primers with degenerate tags or region capture by barcoded molecular inversion probes. Following barcoding, sequencing adapters are incorporated into the uniquely tagged molecules through PCR with overhang primers. The resulting amplicon library is then sequenced on the platform of interest, including Illumina MiSeq or PacBio, depending on the amplicon length and the desired throughput. Resulting reads are grouped by barcode family, and the repeat length of the original molecule for each family is determined to build the real somatic mosaicism profile per sample.

    Article Snippet: Read depth must be considered when directly comparing the results obtained by bulk-PCR PacBio SMRT sequencing and bulk-PCR MiSeq sequencing.

    Techniques: CRISPR, Sequencing, Ligation, De-Phosphorylation Assay, Amplification, Polymerase Chain Reaction