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mouse c2c12 myoblast mb cells  (ATCC)


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    Structured Review

    ATCC mouse c2c12 myoblast mb cells
    RBFox2 regulation of 3D genome is relevant in mouse MB differentiation. ( A ) Schematic illustration of experimental testing of RBFox2 regulation of 3D genome during <t>C2C12</t> MBs differentiation into MTs. ( B ) UCSC track showing the expression of RBFox2 in MB and MT. ( C ) Meta-gene analysis showing the enrichment of RBFox2 ChIP-seq signals at TAD boundaries in MBs. ( D ) Comparison of ISs of +RBFox2 and −RBFox2 boundaries in MBs. ( E ) Comparison of expression of genes residing in TADs with +RBFox2 or −RBFox2 boundaries. ( F ) Dynamic changes of +RBFox2 boundaries during MB to MT differentiation. ( G ) Comparison of ISs of +RBFox2 boundaries in MB versus MT. ( H ) Representative heatmap displaying the increased interaction around +RBFox2 boundaries in MT versus MB. ( I ) An RBFox2 KO C2C12 MB was generated by CRISPR-Cas9 mediated genome editing and the cells were cultured in differentiation medium for 0, 1, 3, 5 days, followed by RT-qPCR detection of the mRNA levels of Myogenin, MyHC, MCK and Tnni2. ( J, K ) IF staining of MyHC protein was performed on day 5 and the quantification of MyHC + MTs is shown. ( L ) Schematic illustration of the experimental testing of transcription effect on RBFox2 binding in MBs. ( M ) Comparison of ISs of +RBFox2 boundaries with or without GRO-seq signals in MB. ( N ) Heatmaps showing RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( O ) Two representative heatmaps displaying the interaction and RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( P ) Heatmaps showing RBFox2 ChIP-seq signals on chromatin in Ctrl- or ActD-treated MB. ( Q ) Pie chart showing the decreased number of RBFox2 ChIP-seq peaks in ActD versus Ctrl MB. ( R ) Representative tracks showing the significant decreased RBFox2 binding upon ActD treatment. ( S ) Pie chart showing the decreased number of +RBFox2 boundaries in ActD versus Ctrl MB. ( T ) Comparison of ISs of +RBFox2 boundaries in ActD versus Ctrl MB. ( U ) Heatmap showing the decreased RBFox2 binding and decreased interaction at RBFox2 binding site upon ActD treatment. ( V ) Schematic illustrating the role of RBFox2 on TAD organization during C2C12 MB differentiation into MT.
    Mouse C2c12 Myoblast Mb Cells, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
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    Article Title: Pervasive RNA-binding protein enrichment on TAD boundaries regulates TAD organization

    Journal: Nucleic Acids Research

    doi: 10.1093/nar/gkae1271

    RBFox2 regulation of 3D genome is relevant in mouse MB differentiation. ( A ) Schematic illustration of experimental testing of RBFox2 regulation of 3D genome during C2C12 MBs differentiation into MTs. ( B ) UCSC track showing the expression of RBFox2 in MB and MT. ( C ) Meta-gene analysis showing the enrichment of RBFox2 ChIP-seq signals at TAD boundaries in MBs. ( D ) Comparison of ISs of +RBFox2 and −RBFox2 boundaries in MBs. ( E ) Comparison of expression of genes residing in TADs with +RBFox2 or −RBFox2 boundaries. ( F ) Dynamic changes of +RBFox2 boundaries during MB to MT differentiation. ( G ) Comparison of ISs of +RBFox2 boundaries in MB versus MT. ( H ) Representative heatmap displaying the increased interaction around +RBFox2 boundaries in MT versus MB. ( I ) An RBFox2 KO C2C12 MB was generated by CRISPR-Cas9 mediated genome editing and the cells were cultured in differentiation medium for 0, 1, 3, 5 days, followed by RT-qPCR detection of the mRNA levels of Myogenin, MyHC, MCK and Tnni2. ( J, K ) IF staining of MyHC protein was performed on day 5 and the quantification of MyHC + MTs is shown. ( L ) Schematic illustration of the experimental testing of transcription effect on RBFox2 binding in MBs. ( M ) Comparison of ISs of +RBFox2 boundaries with or without GRO-seq signals in MB. ( N ) Heatmaps showing RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( O ) Two representative heatmaps displaying the interaction and RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( P ) Heatmaps showing RBFox2 ChIP-seq signals on chromatin in Ctrl- or ActD-treated MB. ( Q ) Pie chart showing the decreased number of RBFox2 ChIP-seq peaks in ActD versus Ctrl MB. ( R ) Representative tracks showing the significant decreased RBFox2 binding upon ActD treatment. ( S ) Pie chart showing the decreased number of +RBFox2 boundaries in ActD versus Ctrl MB. ( T ) Comparison of ISs of +RBFox2 boundaries in ActD versus Ctrl MB. ( U ) Heatmap showing the decreased RBFox2 binding and decreased interaction at RBFox2 binding site upon ActD treatment. ( V ) Schematic illustrating the role of RBFox2 on TAD organization during C2C12 MB differentiation into MT.
    Figure Legend Snippet: RBFox2 regulation of 3D genome is relevant in mouse MB differentiation. ( A ) Schematic illustration of experimental testing of RBFox2 regulation of 3D genome during C2C12 MBs differentiation into MTs. ( B ) UCSC track showing the expression of RBFox2 in MB and MT. ( C ) Meta-gene analysis showing the enrichment of RBFox2 ChIP-seq signals at TAD boundaries in MBs. ( D ) Comparison of ISs of +RBFox2 and −RBFox2 boundaries in MBs. ( E ) Comparison of expression of genes residing in TADs with +RBFox2 or −RBFox2 boundaries. ( F ) Dynamic changes of +RBFox2 boundaries during MB to MT differentiation. ( G ) Comparison of ISs of +RBFox2 boundaries in MB versus MT. ( H ) Representative heatmap displaying the increased interaction around +RBFox2 boundaries in MT versus MB. ( I ) An RBFox2 KO C2C12 MB was generated by CRISPR-Cas9 mediated genome editing and the cells were cultured in differentiation medium for 0, 1, 3, 5 days, followed by RT-qPCR detection of the mRNA levels of Myogenin, MyHC, MCK and Tnni2. ( J, K ) IF staining of MyHC protein was performed on day 5 and the quantification of MyHC + MTs is shown. ( L ) Schematic illustration of the experimental testing of transcription effect on RBFox2 binding in MBs. ( M ) Comparison of ISs of +RBFox2 boundaries with or without GRO-seq signals in MB. ( N ) Heatmaps showing RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( O ) Two representative heatmaps displaying the interaction and RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( P ) Heatmaps showing RBFox2 ChIP-seq signals on chromatin in Ctrl- or ActD-treated MB. ( Q ) Pie chart showing the decreased number of RBFox2 ChIP-seq peaks in ActD versus Ctrl MB. ( R ) Representative tracks showing the significant decreased RBFox2 binding upon ActD treatment. ( S ) Pie chart showing the decreased number of +RBFox2 boundaries in ActD versus Ctrl MB. ( T ) Comparison of ISs of +RBFox2 boundaries in ActD versus Ctrl MB. ( U ) Heatmap showing the decreased RBFox2 binding and decreased interaction at RBFox2 binding site upon ActD treatment. ( V ) Schematic illustrating the role of RBFox2 on TAD organization during C2C12 MB differentiation into MT.

    Techniques Used: Expressing, ChIP-sequencing, Comparison, Generated, CRISPR, Cell Culture, Quantitative RT-PCR, Staining, Binding Assay



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    ATCC mouse c2c12 myoblast mb cells
    RBFox2 regulation of 3D genome is relevant in mouse MB differentiation. ( A ) Schematic illustration of experimental testing of RBFox2 regulation of 3D genome during <t>C2C12</t> MBs differentiation into MTs. ( B ) UCSC track showing the expression of RBFox2 in MB and MT. ( C ) Meta-gene analysis showing the enrichment of RBFox2 ChIP-seq signals at TAD boundaries in MBs. ( D ) Comparison of ISs of +RBFox2 and −RBFox2 boundaries in MBs. ( E ) Comparison of expression of genes residing in TADs with +RBFox2 or −RBFox2 boundaries. ( F ) Dynamic changes of +RBFox2 boundaries during MB to MT differentiation. ( G ) Comparison of ISs of +RBFox2 boundaries in MB versus MT. ( H ) Representative heatmap displaying the increased interaction around +RBFox2 boundaries in MT versus MB. ( I ) An RBFox2 KO C2C12 MB was generated by CRISPR-Cas9 mediated genome editing and the cells were cultured in differentiation medium for 0, 1, 3, 5 days, followed by RT-qPCR detection of the mRNA levels of Myogenin, MyHC, MCK and Tnni2. ( J, K ) IF staining of MyHC protein was performed on day 5 and the quantification of MyHC + MTs is shown. ( L ) Schematic illustration of the experimental testing of transcription effect on RBFox2 binding in MBs. ( M ) Comparison of ISs of +RBFox2 boundaries with or without GRO-seq signals in MB. ( N ) Heatmaps showing RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( O ) Two representative heatmaps displaying the interaction and RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( P ) Heatmaps showing RBFox2 ChIP-seq signals on chromatin in Ctrl- or ActD-treated MB. ( Q ) Pie chart showing the decreased number of RBFox2 ChIP-seq peaks in ActD versus Ctrl MB. ( R ) Representative tracks showing the significant decreased RBFox2 binding upon ActD treatment. ( S ) Pie chart showing the decreased number of +RBFox2 boundaries in ActD versus Ctrl MB. ( T ) Comparison of ISs of +RBFox2 boundaries in ActD versus Ctrl MB. ( U ) Heatmap showing the decreased RBFox2 binding and decreased interaction at RBFox2 binding site upon ActD treatment. ( V ) Schematic illustrating the role of RBFox2 on TAD organization during C2C12 MB differentiation into MT.
    Mouse C2c12 Myoblast Mb Cells, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/mouse c2c12 myoblast mb cells/product/ATCC
    Average 99 stars, based on 1 article reviews
    mouse c2c12 myoblast mb cells - by Bioz Stars, 2025-04
    99/100 stars
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    99
    ATCC hek293t cell lines mouse c2c12 myoblast mb
    RBFox2 regulation of 3D genome is relevant in mouse MB differentiation. ( A ) Schematic illustration of experimental testing of RBFox2 regulation of 3D genome during <t>C2C12</t> MBs differentiation into MTs. ( B ) UCSC track showing the expression of RBFox2 in MB and MT. ( C ) Meta-gene analysis showing the enrichment of RBFox2 ChIP-seq signals at TAD boundaries in MBs. ( D ) Comparison of ISs of +RBFox2 and −RBFox2 boundaries in MBs. ( E ) Comparison of expression of genes residing in TADs with +RBFox2 or −RBFox2 boundaries. ( F ) Dynamic changes of +RBFox2 boundaries during MB to MT differentiation. ( G ) Comparison of ISs of +RBFox2 boundaries in MB versus MT. ( H ) Representative heatmap displaying the increased interaction around +RBFox2 boundaries in MT versus MB. ( I ) An RBFox2 KO C2C12 MB was generated by CRISPR-Cas9 mediated genome editing and the cells were cultured in differentiation medium for 0, 1, 3, 5 days, followed by RT-qPCR detection of the mRNA levels of Myogenin, MyHC, MCK and Tnni2. ( J, K ) IF staining of MyHC protein was performed on day 5 and the quantification of MyHC + MTs is shown. ( L ) Schematic illustration of the experimental testing of transcription effect on RBFox2 binding in MBs. ( M ) Comparison of ISs of +RBFox2 boundaries with or without GRO-seq signals in MB. ( N ) Heatmaps showing RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( O ) Two representative heatmaps displaying the interaction and RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( P ) Heatmaps showing RBFox2 ChIP-seq signals on chromatin in Ctrl- or ActD-treated MB. ( Q ) Pie chart showing the decreased number of RBFox2 ChIP-seq peaks in ActD versus Ctrl MB. ( R ) Representative tracks showing the significant decreased RBFox2 binding upon ActD treatment. ( S ) Pie chart showing the decreased number of +RBFox2 boundaries in ActD versus Ctrl MB. ( T ) Comparison of ISs of +RBFox2 boundaries in ActD versus Ctrl MB. ( U ) Heatmap showing the decreased RBFox2 binding and decreased interaction at RBFox2 binding site upon ActD treatment. ( V ) Schematic illustrating the role of RBFox2 on TAD organization during C2C12 MB differentiation into MT.
    Hek293t Cell Lines Mouse C2c12 Myoblast Mb, supplied by ATCC, used in various techniques. Bioz Stars score: 99/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/result/hek293t cell lines mouse c2c12 myoblast mb/product/ATCC
    Average 99 stars, based on 1 article reviews
    hek293t cell lines mouse c2c12 myoblast mb - by Bioz Stars, 2025-04
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    RBFox2 regulation of 3D genome is relevant in mouse MB differentiation. ( A ) Schematic illustration of experimental testing of RBFox2 regulation of 3D genome during C2C12 MBs differentiation into MTs. ( B ) UCSC track showing the expression of RBFox2 in MB and MT. ( C ) Meta-gene analysis showing the enrichment of RBFox2 ChIP-seq signals at TAD boundaries in MBs. ( D ) Comparison of ISs of +RBFox2 and −RBFox2 boundaries in MBs. ( E ) Comparison of expression of genes residing in TADs with +RBFox2 or −RBFox2 boundaries. ( F ) Dynamic changes of +RBFox2 boundaries during MB to MT differentiation. ( G ) Comparison of ISs of +RBFox2 boundaries in MB versus MT. ( H ) Representative heatmap displaying the increased interaction around +RBFox2 boundaries in MT versus MB. ( I ) An RBFox2 KO C2C12 MB was generated by CRISPR-Cas9 mediated genome editing and the cells were cultured in differentiation medium for 0, 1, 3, 5 days, followed by RT-qPCR detection of the mRNA levels of Myogenin, MyHC, MCK and Tnni2. ( J, K ) IF staining of MyHC protein was performed on day 5 and the quantification of MyHC + MTs is shown. ( L ) Schematic illustration of the experimental testing of transcription effect on RBFox2 binding in MBs. ( M ) Comparison of ISs of +RBFox2 boundaries with or without GRO-seq signals in MB. ( N ) Heatmaps showing RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( O ) Two representative heatmaps displaying the interaction and RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( P ) Heatmaps showing RBFox2 ChIP-seq signals on chromatin in Ctrl- or ActD-treated MB. ( Q ) Pie chart showing the decreased number of RBFox2 ChIP-seq peaks in ActD versus Ctrl MB. ( R ) Representative tracks showing the significant decreased RBFox2 binding upon ActD treatment. ( S ) Pie chart showing the decreased number of +RBFox2 boundaries in ActD versus Ctrl MB. ( T ) Comparison of ISs of +RBFox2 boundaries in ActD versus Ctrl MB. ( U ) Heatmap showing the decreased RBFox2 binding and decreased interaction at RBFox2 binding site upon ActD treatment. ( V ) Schematic illustrating the role of RBFox2 on TAD organization during C2C12 MB differentiation into MT.

    Journal: Nucleic Acids Research

    Article Title: Pervasive RNA-binding protein enrichment on TAD boundaries regulates TAD organization

    doi: 10.1093/nar/gkae1271

    Figure Lengend Snippet: RBFox2 regulation of 3D genome is relevant in mouse MB differentiation. ( A ) Schematic illustration of experimental testing of RBFox2 regulation of 3D genome during C2C12 MBs differentiation into MTs. ( B ) UCSC track showing the expression of RBFox2 in MB and MT. ( C ) Meta-gene analysis showing the enrichment of RBFox2 ChIP-seq signals at TAD boundaries in MBs. ( D ) Comparison of ISs of +RBFox2 and −RBFox2 boundaries in MBs. ( E ) Comparison of expression of genes residing in TADs with +RBFox2 or −RBFox2 boundaries. ( F ) Dynamic changes of +RBFox2 boundaries during MB to MT differentiation. ( G ) Comparison of ISs of +RBFox2 boundaries in MB versus MT. ( H ) Representative heatmap displaying the increased interaction around +RBFox2 boundaries in MT versus MB. ( I ) An RBFox2 KO C2C12 MB was generated by CRISPR-Cas9 mediated genome editing and the cells were cultured in differentiation medium for 0, 1, 3, 5 days, followed by RT-qPCR detection of the mRNA levels of Myogenin, MyHC, MCK and Tnni2. ( J, K ) IF staining of MyHC protein was performed on day 5 and the quantification of MyHC + MTs is shown. ( L ) Schematic illustration of the experimental testing of transcription effect on RBFox2 binding in MBs. ( M ) Comparison of ISs of +RBFox2 boundaries with or without GRO-seq signals in MB. ( N ) Heatmaps showing RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( O ) Two representative heatmaps displaying the interaction and RBFox2 ChIP-seq signals at +GRO-seq and −GRO-seq sites. ( P ) Heatmaps showing RBFox2 ChIP-seq signals on chromatin in Ctrl- or ActD-treated MB. ( Q ) Pie chart showing the decreased number of RBFox2 ChIP-seq peaks in ActD versus Ctrl MB. ( R ) Representative tracks showing the significant decreased RBFox2 binding upon ActD treatment. ( S ) Pie chart showing the decreased number of +RBFox2 boundaries in ActD versus Ctrl MB. ( T ) Comparison of ISs of +RBFox2 boundaries in ActD versus Ctrl MB. ( U ) Heatmap showing the decreased RBFox2 binding and decreased interaction at RBFox2 binding site upon ActD treatment. ( V ) Schematic illustrating the role of RBFox2 on TAD organization during C2C12 MB differentiation into MT.

    Article Snippet: Mouse C2C12 myoblast (MB) cells (CRL-1772) were obtained from American Type Culture Collection (ATCC) and cultured as described before ( , ) in Dulbecco’s modified Eagle’s medium medium (Gibco, 12800–017) with 10% fetal bovine serum (Gibco, 10270–106), 100 units ml −1 of penicillin and 100 μg of streptomycin at 37°C in 5% CO 2 .

    Techniques: Expressing, ChIP-sequencing, Comparison, Generated, CRISPR, Cell Culture, Quantitative RT-PCR, Staining, Binding Assay