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dbscan (v1.0) matlab package  (MathWorks Inc)


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    MathWorks Inc dbscan (v1.0) matlab package
    a , Model of ENCODE eCLIP experiments. Inputs were taken by sampling 2% of one of the two biosamples before IP. b , Example IP–western image for DCP1B IP success in K562 cells during initial IP tests performed without enzymatic steps (left) and IP failure in K562 cells during eCLIP experiments (right). This experiment was performed once. c , Pie charts indicate the number of eCLIP experiments that fell into the following categories: failure to successfully immunoprecipitate during eCLIP (IP failure), failure to yield amplifiable library in fewer than 20 PCR cycles (experiment abandoned), experiments that yielded immunoprecipitated library and were sequenced but failed quality assessment (QC failed), successful experiments that did not meet ENCODE standards but contained reproducible signal and have been released on the GEO, and successful experiments that met ENCODE standards and are available at the ENCODE Data Coordination Center (released). d , Schematic of eCLIP data quality standards. See and Supplementary Fig. for additional details. e , Confusion matrix of final classification scheme versus manual quality assessment. f , The number of CLIP per-identified clusters ( x -axis) versus the number of significantly enriched peaks ( y -axis) (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact Test (or Yates’s χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified for each of 446 eCLIP experimental replicates. g , The number of significantly enriched peaks (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact rest (or Yates’ χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified in each of replicate 1 and replicate 2 versus the number of reproducible peaks identified from IDR analysis for 223 eCLIP experiments. Pearson correlation and significance were determined in <t>MATLAB.</t> h , The number of significant and reproducible peaks identified in K562 cells ( x -axis) versus HepG2 cells ( y -axis) as in g , for all 73 RBPs with eCLIP in both cell types. Pearson correlation and significance were determined in MATLAB.
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    1) Product Images from "A large-scale binding and functional map of human RNA-binding proteins"

    Article Title: A large-scale binding and functional map of human RNA-binding proteins

    Journal: Nature

    doi: 10.1038/s41586-020-2077-3

    a , Model of ENCODE eCLIP experiments. Inputs were taken by sampling 2% of one of the two biosamples before IP. b , Example IP–western image for DCP1B IP success in K562 cells during initial IP tests performed without enzymatic steps (left) and IP failure in K562 cells during eCLIP experiments (right). This experiment was performed once. c , Pie charts indicate the number of eCLIP experiments that fell into the following categories: failure to successfully immunoprecipitate during eCLIP (IP failure), failure to yield amplifiable library in fewer than 20 PCR cycles (experiment abandoned), experiments that yielded immunoprecipitated library and were sequenced but failed quality assessment (QC failed), successful experiments that did not meet ENCODE standards but contained reproducible signal and have been released on the GEO, and successful experiments that met ENCODE standards and are available at the ENCODE Data Coordination Center (released). d , Schematic of eCLIP data quality standards. See and Supplementary Fig. for additional details. e , Confusion matrix of final classification scheme versus manual quality assessment. f , The number of CLIP per-identified clusters ( x -axis) versus the number of significantly enriched peaks ( y -axis) (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact Test (or Yates’s χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified for each of 446 eCLIP experimental replicates. g , The number of significantly enriched peaks (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact rest (or Yates’ χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified in each of replicate 1 and replicate 2 versus the number of reproducible peaks identified from IDR analysis for 223 eCLIP experiments. Pearson correlation and significance were determined in MATLAB. h , The number of significant and reproducible peaks identified in K562 cells ( x -axis) versus HepG2 cells ( y -axis) as in g , for all 73 RBPs with eCLIP in both cell types. Pearson correlation and significance were determined in MATLAB.
    Figure Legend Snippet: a , Model of ENCODE eCLIP experiments. Inputs were taken by sampling 2% of one of the two biosamples before IP. b , Example IP–western image for DCP1B IP success in K562 cells during initial IP tests performed without enzymatic steps (left) and IP failure in K562 cells during eCLIP experiments (right). This experiment was performed once. c , Pie charts indicate the number of eCLIP experiments that fell into the following categories: failure to successfully immunoprecipitate during eCLIP (IP failure), failure to yield amplifiable library in fewer than 20 PCR cycles (experiment abandoned), experiments that yielded immunoprecipitated library and were sequenced but failed quality assessment (QC failed), successful experiments that did not meet ENCODE standards but contained reproducible signal and have been released on the GEO, and successful experiments that met ENCODE standards and are available at the ENCODE Data Coordination Center (released). d , Schematic of eCLIP data quality standards. See and Supplementary Fig. for additional details. e , Confusion matrix of final classification scheme versus manual quality assessment. f , The number of CLIP per-identified clusters ( x -axis) versus the number of significantly enriched peaks ( y -axis) (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact Test (or Yates’s χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified for each of 446 eCLIP experimental replicates. g , The number of significantly enriched peaks (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact rest (or Yates’ χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified in each of replicate 1 and replicate 2 versus the number of reproducible peaks identified from IDR analysis for 223 eCLIP experiments. Pearson correlation and significance were determined in MATLAB. h , The number of significant and reproducible peaks identified in K562 cells ( x -axis) versus HepG2 cells ( y -axis) as in g , for all 73 RBPs with eCLIP in both cell types. Pearson correlation and significance were determined in MATLAB.

    Techniques Used: Sampling, Western Blot, Immunoprecipitation

    a , Stacked bars indicate significant eCLIP peaks (fold enrichment ≥8, P ≤ 0.001, and biologically reproducible by IDR) for 223 eCLIP experiments. Number of peaks is shown on a logarithmic scale; bar heights are pseudo-coloured according to the linear fraction of peaks overlapping the indicated regions of pre-RNA, mRNA, and non-coding RNAs. Data sets were hierarchically clustered to identify six clusters based on similar region profiles (Extended Data Fig. ). b , Seventeen clusters and one outlier of RBPs based on t -distributed stochastic neighbour-embedding ( t -SNE) clustering (performed in MATLAB with algorithm = exact, distance = correlation, and perplexity = 10) of unique genomic and multicopy element signal for 223 eCLIP experiments. c , For RBPs in clusters in b , heatmap indicates the average relative information for each listed RNA region or element. d , Each point indicates the fold enrichment in eCLIP of RBFOX2 in K562 cells (RBFOX2 K562 ) for a reproducible RBFOX2 eCLIP peak in HepG2 cells (RBFOX2 HepG2 ), with underlaid black histogram, separated by the difference in expression of the bound gene between K562 and HepG2 cells. Red lines indicate mean; two-sided Kolmogorov–Smirnov test. e , For each RBP profiled in both K562 and HepG2 cells ( n = 73), points indicate the fraction of peaks in the first cell type associated with a given gene class that are (blue) at least fourfold enriched, or (red) not enriched (fold enrichment ≤1) in the second cell type. Boxes indicate quartiles, green lines show mean.
    Figure Legend Snippet: a , Stacked bars indicate significant eCLIP peaks (fold enrichment ≥8, P ≤ 0.001, and biologically reproducible by IDR) for 223 eCLIP experiments. Number of peaks is shown on a logarithmic scale; bar heights are pseudo-coloured according to the linear fraction of peaks overlapping the indicated regions of pre-RNA, mRNA, and non-coding RNAs. Data sets were hierarchically clustered to identify six clusters based on similar region profiles (Extended Data Fig. ). b , Seventeen clusters and one outlier of RBPs based on t -distributed stochastic neighbour-embedding ( t -SNE) clustering (performed in MATLAB with algorithm = exact, distance = correlation, and perplexity = 10) of unique genomic and multicopy element signal for 223 eCLIP experiments. c , For RBPs in clusters in b , heatmap indicates the average relative information for each listed RNA region or element. d , Each point indicates the fold enrichment in eCLIP of RBFOX2 in K562 cells (RBFOX2 K562 ) for a reproducible RBFOX2 eCLIP peak in HepG2 cells (RBFOX2 HepG2 ), with underlaid black histogram, separated by the difference in expression of the bound gene between K562 and HepG2 cells. Red lines indicate mean; two-sided Kolmogorov–Smirnov test. e , For each RBP profiled in both K562 and HepG2 cells ( n = 73), points indicate the fraction of peaks in the first cell type associated with a given gene class that are (blue) at least fourfold enriched, or (red) not enriched (fold enrichment ≤1) in the second cell type. Boxes indicate quartiles, green lines show mean.

    Techniques Used: Expressing

    a , Similar to Extended Data Fig. , knockdown-altered skipped exons were identified for each RNA-seq experiment. However, for this analysis, normalized eCLIP read density at skipped exons that were excluded (left) or included (right) upon RBP knockdown versus nSEs was calculated separately for all RBPs within the same RBP class (identified in Fig. ). The heatmap then indicates the difference between the normalized eCLIP signal for the shRNA-targeted RBP and the mean of the normalized eCLIP signal for all other RBPs within that class. Shown are all 92 pairings of RBPs with eCLIP and KD–RNA-seq data and at least 100 included or excluded altered events, with hatching indicating data sets with fewer than 100 significantly altered events. b , Heatmap indicates normalized eCLIP signal at 492 HNRNPC knockdown-induced exons in HepG2 cells relative to nSEs for HNRNPC (top) and all other RBPs within the same binding class and cell type (bottom). c , As in b , for 138 RBFOX2 knockdown-excluded exons in HepG2 cells (as shown in Fig. , but including all labels). d , Points indicate average change in Δ Ψ in two replicates of RBFOX2 knockdown ( x -axis) and QKI knockdown ( y -axis) in HepG2 cells. Shown are 93 exons that were significantly altered ( P < 0.05, FDR < 0.1, and |ΔΨ| > 0.05) from rMATS analysis of either RBFOX2 or QKI, and had at least 30 inclusion or exclusion reads in both replicates and average |Δ Ψ | > 0.05 for both RBFOX2 and QKI knockdown. Significance was determined from correlation in MATLAB. e , For each of 138 RBFOX2 knockdown-excluded skipped exons in HepG2 cells, points indicate normalized RBFOX2 eCLIP enrichment at the +60 nt position of the downstream intron ( x -axis) versus normalized QKI eCLIP enrichment at the +150 nt position of the downstream intron ( y -axis). f , As in b , for 160 TIA1 knockdown-included exons in HepG2 cells. Right, black indicates mean of 15 non-TIA1 data sets in the same binding class, with the 10th–90th percentiles indicated in grey. g , Western blot for (left) TIAL1 and (right) TIA1 of IP performed with IgG, TIA1 (RN014P, MBLI), and TIAL1 (RN059PW, MBNL) primary antibodies. This experiment was performed once. h , As in d , for TIA1 and TIAL1 at 107 TIA1 knockdown-included exons in HepG2 cells.
    Figure Legend Snippet: a , Similar to Extended Data Fig. , knockdown-altered skipped exons were identified for each RNA-seq experiment. However, for this analysis, normalized eCLIP read density at skipped exons that were excluded (left) or included (right) upon RBP knockdown versus nSEs was calculated separately for all RBPs within the same RBP class (identified in Fig. ). The heatmap then indicates the difference between the normalized eCLIP signal for the shRNA-targeted RBP and the mean of the normalized eCLIP signal for all other RBPs within that class. Shown are all 92 pairings of RBPs with eCLIP and KD–RNA-seq data and at least 100 included or excluded altered events, with hatching indicating data sets with fewer than 100 significantly altered events. b , Heatmap indicates normalized eCLIP signal at 492 HNRNPC knockdown-induced exons in HepG2 cells relative to nSEs for HNRNPC (top) and all other RBPs within the same binding class and cell type (bottom). c , As in b , for 138 RBFOX2 knockdown-excluded exons in HepG2 cells (as shown in Fig. , but including all labels). d , Points indicate average change in Δ Ψ in two replicates of RBFOX2 knockdown ( x -axis) and QKI knockdown ( y -axis) in HepG2 cells. Shown are 93 exons that were significantly altered ( P < 0.05, FDR < 0.1, and |ΔΨ| > 0.05) from rMATS analysis of either RBFOX2 or QKI, and had at least 30 inclusion or exclusion reads in both replicates and average |Δ Ψ | > 0.05 for both RBFOX2 and QKI knockdown. Significance was determined from correlation in MATLAB. e , For each of 138 RBFOX2 knockdown-excluded skipped exons in HepG2 cells, points indicate normalized RBFOX2 eCLIP enrichment at the +60 nt position of the downstream intron ( x -axis) versus normalized QKI eCLIP enrichment at the +150 nt position of the downstream intron ( y -axis). f , As in b , for 160 TIA1 knockdown-included exons in HepG2 cells. Right, black indicates mean of 15 non-TIA1 data sets in the same binding class, with the 10th–90th percentiles indicated in grey. g , Western blot for (left) TIAL1 and (right) TIA1 of IP performed with IgG, TIA1 (RN014P, MBLI), and TIAL1 (RN059PW, MBNL) primary antibodies. This experiment was performed once. h , As in d , for TIA1 and TIAL1 at 107 TIA1 knockdown-included exons in HepG2 cells.

    Techniques Used: Knockdown, RNA Sequencing, shRNA, Binding Assay, Western Blot



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    MathWorks Inc dbscan (v1.0) matlab package
    a , Model of ENCODE eCLIP experiments. Inputs were taken by sampling 2% of one of the two biosamples before IP. b , Example IP–western image for DCP1B IP success in K562 cells during initial IP tests performed without enzymatic steps (left) and IP failure in K562 cells during eCLIP experiments (right). This experiment was performed once. c , Pie charts indicate the number of eCLIP experiments that fell into the following categories: failure to successfully immunoprecipitate during eCLIP (IP failure), failure to yield amplifiable library in fewer than 20 PCR cycles (experiment abandoned), experiments that yielded immunoprecipitated library and were sequenced but failed quality assessment (QC failed), successful experiments that did not meet ENCODE standards but contained reproducible signal and have been released on the GEO, and successful experiments that met ENCODE standards and are available at the ENCODE Data Coordination Center (released). d , Schematic of eCLIP data quality standards. See and Supplementary Fig. for additional details. e , Confusion matrix of final classification scheme versus manual quality assessment. f , The number of CLIP per-identified clusters ( x -axis) versus the number of significantly enriched peaks ( y -axis) (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact Test (or Yates’s χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified for each of 446 eCLIP experimental replicates. g , The number of significantly enriched peaks (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact rest (or Yates’ χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified in each of replicate 1 and replicate 2 versus the number of reproducible peaks identified from IDR analysis for 223 eCLIP experiments. Pearson correlation and significance were determined in <t>MATLAB.</t> h , The number of significant and reproducible peaks identified in K562 cells ( x -axis) versus HepG2 cells ( y -axis) as in g , for all 73 RBPs with eCLIP in both cell types. Pearson correlation and significance were determined in MATLAB.
    Dbscan (V1.0) Matlab Package, supplied by MathWorks 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/dbscan (v1.0) matlab package/product/MathWorks Inc
    Average 90 stars, based on 1 article reviews
    dbscan (v1.0) matlab package - by Bioz Stars, 2026-04
    90/100 stars
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    a , Model of ENCODE eCLIP experiments. Inputs were taken by sampling 2% of one of the two biosamples before IP. b , Example IP–western image for DCP1B IP success in K562 cells during initial IP tests performed without enzymatic steps (left) and IP failure in K562 cells during eCLIP experiments (right). This experiment was performed once. c , Pie charts indicate the number of eCLIP experiments that fell into the following categories: failure to successfully immunoprecipitate during eCLIP (IP failure), failure to yield amplifiable library in fewer than 20 PCR cycles (experiment abandoned), experiments that yielded immunoprecipitated library and were sequenced but failed quality assessment (QC failed), successful experiments that did not meet ENCODE standards but contained reproducible signal and have been released on the GEO, and successful experiments that met ENCODE standards and are available at the ENCODE Data Coordination Center (released). d , Schematic of eCLIP data quality standards. See and Supplementary Fig. for additional details. e , Confusion matrix of final classification scheme versus manual quality assessment. f , The number of CLIP per-identified clusters ( x -axis) versus the number of significantly enriched peaks ( y -axis) (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact Test (or Yates’s χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified for each of 446 eCLIP experimental replicates. g , The number of significantly enriched peaks (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact rest (or Yates’ χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified in each of replicate 1 and replicate 2 versus the number of reproducible peaks identified from IDR analysis for 223 eCLIP experiments. Pearson correlation and significance were determined in MATLAB. h , The number of significant and reproducible peaks identified in K562 cells ( x -axis) versus HepG2 cells ( y -axis) as in g , for all 73 RBPs with eCLIP in both cell types. Pearson correlation and significance were determined in MATLAB.

    Journal: Nature

    Article Title: A large-scale binding and functional map of human RNA-binding proteins

    doi: 10.1038/s41586-020-2077-3

    Figure Lengend Snippet: a , Model of ENCODE eCLIP experiments. Inputs were taken by sampling 2% of one of the two biosamples before IP. b , Example IP–western image for DCP1B IP success in K562 cells during initial IP tests performed without enzymatic steps (left) and IP failure in K562 cells during eCLIP experiments (right). This experiment was performed once. c , Pie charts indicate the number of eCLIP experiments that fell into the following categories: failure to successfully immunoprecipitate during eCLIP (IP failure), failure to yield amplifiable library in fewer than 20 PCR cycles (experiment abandoned), experiments that yielded immunoprecipitated library and were sequenced but failed quality assessment (QC failed), successful experiments that did not meet ENCODE standards but contained reproducible signal and have been released on the GEO, and successful experiments that met ENCODE standards and are available at the ENCODE Data Coordination Center (released). d , Schematic of eCLIP data quality standards. See and Supplementary Fig. for additional details. e , Confusion matrix of final classification scheme versus manual quality assessment. f , The number of CLIP per-identified clusters ( x -axis) versus the number of significantly enriched peaks ( y -axis) (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact Test (or Yates’s χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified for each of 446 eCLIP experimental replicates. g , The number of significantly enriched peaks (fold enrichment ≥ 8 and P ≤ 0.001 from two-sided Fisher’s exact rest (or Yates’ χ 2 test where appropriate) with no hypothesis testing correction (Methods)) identified in each of replicate 1 and replicate 2 versus the number of reproducible peaks identified from IDR analysis for 223 eCLIP experiments. Pearson correlation and significance were determined in MATLAB. h , The number of significant and reproducible peaks identified in K562 cells ( x -axis) versus HepG2 cells ( y -axis) as in g , for all 73 RBPs with eCLIP in both cell types. Pearson correlation and significance were determined in MATLAB.

    Article Snippet: To identify clusters, clustering was performed in using the DBSCAN (v1.0) MATLAB package, with options epsilon = 3 and MinPts = 2.

    Techniques: Sampling, Western Blot, Immunoprecipitation

    a , Stacked bars indicate significant eCLIP peaks (fold enrichment ≥8, P ≤ 0.001, and biologically reproducible by IDR) for 223 eCLIP experiments. Number of peaks is shown on a logarithmic scale; bar heights are pseudo-coloured according to the linear fraction of peaks overlapping the indicated regions of pre-RNA, mRNA, and non-coding RNAs. Data sets were hierarchically clustered to identify six clusters based on similar region profiles (Extended Data Fig. ). b , Seventeen clusters and one outlier of RBPs based on t -distributed stochastic neighbour-embedding ( t -SNE) clustering (performed in MATLAB with algorithm = exact, distance = correlation, and perplexity = 10) of unique genomic and multicopy element signal for 223 eCLIP experiments. c , For RBPs in clusters in b , heatmap indicates the average relative information for each listed RNA region or element. d , Each point indicates the fold enrichment in eCLIP of RBFOX2 in K562 cells (RBFOX2 K562 ) for a reproducible RBFOX2 eCLIP peak in HepG2 cells (RBFOX2 HepG2 ), with underlaid black histogram, separated by the difference in expression of the bound gene between K562 and HepG2 cells. Red lines indicate mean; two-sided Kolmogorov–Smirnov test. e , For each RBP profiled in both K562 and HepG2 cells ( n = 73), points indicate the fraction of peaks in the first cell type associated with a given gene class that are (blue) at least fourfold enriched, or (red) not enriched (fold enrichment ≤1) in the second cell type. Boxes indicate quartiles, green lines show mean.

    Journal: Nature

    Article Title: A large-scale binding and functional map of human RNA-binding proteins

    doi: 10.1038/s41586-020-2077-3

    Figure Lengend Snippet: a , Stacked bars indicate significant eCLIP peaks (fold enrichment ≥8, P ≤ 0.001, and biologically reproducible by IDR) for 223 eCLIP experiments. Number of peaks is shown on a logarithmic scale; bar heights are pseudo-coloured according to the linear fraction of peaks overlapping the indicated regions of pre-RNA, mRNA, and non-coding RNAs. Data sets were hierarchically clustered to identify six clusters based on similar region profiles (Extended Data Fig. ). b , Seventeen clusters and one outlier of RBPs based on t -distributed stochastic neighbour-embedding ( t -SNE) clustering (performed in MATLAB with algorithm = exact, distance = correlation, and perplexity = 10) of unique genomic and multicopy element signal for 223 eCLIP experiments. c , For RBPs in clusters in b , heatmap indicates the average relative information for each listed RNA region or element. d , Each point indicates the fold enrichment in eCLIP of RBFOX2 in K562 cells (RBFOX2 K562 ) for a reproducible RBFOX2 eCLIP peak in HepG2 cells (RBFOX2 HepG2 ), with underlaid black histogram, separated by the difference in expression of the bound gene between K562 and HepG2 cells. Red lines indicate mean; two-sided Kolmogorov–Smirnov test. e , For each RBP profiled in both K562 and HepG2 cells ( n = 73), points indicate the fraction of peaks in the first cell type associated with a given gene class that are (blue) at least fourfold enriched, or (red) not enriched (fold enrichment ≤1) in the second cell type. Boxes indicate quartiles, green lines show mean.

    Article Snippet: To identify clusters, clustering was performed in using the DBSCAN (v1.0) MATLAB package, with options epsilon = 3 and MinPts = 2.

    Techniques: Expressing

    a , Similar to Extended Data Fig. , knockdown-altered skipped exons were identified for each RNA-seq experiment. However, for this analysis, normalized eCLIP read density at skipped exons that were excluded (left) or included (right) upon RBP knockdown versus nSEs was calculated separately for all RBPs within the same RBP class (identified in Fig. ). The heatmap then indicates the difference between the normalized eCLIP signal for the shRNA-targeted RBP and the mean of the normalized eCLIP signal for all other RBPs within that class. Shown are all 92 pairings of RBPs with eCLIP and KD–RNA-seq data and at least 100 included or excluded altered events, with hatching indicating data sets with fewer than 100 significantly altered events. b , Heatmap indicates normalized eCLIP signal at 492 HNRNPC knockdown-induced exons in HepG2 cells relative to nSEs for HNRNPC (top) and all other RBPs within the same binding class and cell type (bottom). c , As in b , for 138 RBFOX2 knockdown-excluded exons in HepG2 cells (as shown in Fig. , but including all labels). d , Points indicate average change in Δ Ψ in two replicates of RBFOX2 knockdown ( x -axis) and QKI knockdown ( y -axis) in HepG2 cells. Shown are 93 exons that were significantly altered ( P < 0.05, FDR < 0.1, and |ΔΨ| > 0.05) from rMATS analysis of either RBFOX2 or QKI, and had at least 30 inclusion or exclusion reads in both replicates and average |Δ Ψ | > 0.05 for both RBFOX2 and QKI knockdown. Significance was determined from correlation in MATLAB. e , For each of 138 RBFOX2 knockdown-excluded skipped exons in HepG2 cells, points indicate normalized RBFOX2 eCLIP enrichment at the +60 nt position of the downstream intron ( x -axis) versus normalized QKI eCLIP enrichment at the +150 nt position of the downstream intron ( y -axis). f , As in b , for 160 TIA1 knockdown-included exons in HepG2 cells. Right, black indicates mean of 15 non-TIA1 data sets in the same binding class, with the 10th–90th percentiles indicated in grey. g , Western blot for (left) TIAL1 and (right) TIA1 of IP performed with IgG, TIA1 (RN014P, MBLI), and TIAL1 (RN059PW, MBNL) primary antibodies. This experiment was performed once. h , As in d , for TIA1 and TIAL1 at 107 TIA1 knockdown-included exons in HepG2 cells.

    Journal: Nature

    Article Title: A large-scale binding and functional map of human RNA-binding proteins

    doi: 10.1038/s41586-020-2077-3

    Figure Lengend Snippet: a , Similar to Extended Data Fig. , knockdown-altered skipped exons were identified for each RNA-seq experiment. However, for this analysis, normalized eCLIP read density at skipped exons that were excluded (left) or included (right) upon RBP knockdown versus nSEs was calculated separately for all RBPs within the same RBP class (identified in Fig. ). The heatmap then indicates the difference between the normalized eCLIP signal for the shRNA-targeted RBP and the mean of the normalized eCLIP signal for all other RBPs within that class. Shown are all 92 pairings of RBPs with eCLIP and KD–RNA-seq data and at least 100 included or excluded altered events, with hatching indicating data sets with fewer than 100 significantly altered events. b , Heatmap indicates normalized eCLIP signal at 492 HNRNPC knockdown-induced exons in HepG2 cells relative to nSEs for HNRNPC (top) and all other RBPs within the same binding class and cell type (bottom). c , As in b , for 138 RBFOX2 knockdown-excluded exons in HepG2 cells (as shown in Fig. , but including all labels). d , Points indicate average change in Δ Ψ in two replicates of RBFOX2 knockdown ( x -axis) and QKI knockdown ( y -axis) in HepG2 cells. Shown are 93 exons that were significantly altered ( P < 0.05, FDR < 0.1, and |ΔΨ| > 0.05) from rMATS analysis of either RBFOX2 or QKI, and had at least 30 inclusion or exclusion reads in both replicates and average |Δ Ψ | > 0.05 for both RBFOX2 and QKI knockdown. Significance was determined from correlation in MATLAB. e , For each of 138 RBFOX2 knockdown-excluded skipped exons in HepG2 cells, points indicate normalized RBFOX2 eCLIP enrichment at the +60 nt position of the downstream intron ( x -axis) versus normalized QKI eCLIP enrichment at the +150 nt position of the downstream intron ( y -axis). f , As in b , for 160 TIA1 knockdown-included exons in HepG2 cells. Right, black indicates mean of 15 non-TIA1 data sets in the same binding class, with the 10th–90th percentiles indicated in grey. g , Western blot for (left) TIAL1 and (right) TIA1 of IP performed with IgG, TIA1 (RN014P, MBLI), and TIAL1 (RN059PW, MBNL) primary antibodies. This experiment was performed once. h , As in d , for TIA1 and TIAL1 at 107 TIA1 knockdown-included exons in HepG2 cells.

    Article Snippet: To identify clusters, clustering was performed in using the DBSCAN (v1.0) MATLAB package, with options epsilon = 3 and MinPts = 2.

    Techniques: Knockdown, RNA Sequencing, shRNA, Binding Assay, Western Blot