Review



rabbit polyclonal antibody against rbm14  (Bethyl)


Bioz Verified Symbol Bethyl is a verified supplier  
  • Logo
  • About
  • News
  • Press Release
  • Team
  • Advisors
  • Partners
  • Contact
  • Bioz Stars
  • Bioz vStars
    • 93
      Buy from Supplier

    Structured Review

    Bethyl rabbit polyclonal antibody against rbm14
    Core-shell arrangement of protein components in paraspeckle spheres I. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, <t>Rbm14,</t> Brg1, and Tardbp in corpus luteal cells. Note that the paraspeckle proteins are grouped into the core, patch, and shell components depending on their distribution in the paraspeckles. (B) Dendrogram based on pairwise class-distance matrix generated using the machine-learning pattern-recognition tool wndchrm. The shell, core, and patch components are grouped into three distinct branches. (C) A model for the structure of paraspeckles. Neat1 folds in half with the 5′ and the 3′ regions bundled independently and radially arranged to construct scaffolds of paraspeckles. Bar, 500 nm.
    Rabbit Polyclonal Antibody Against Rbm14, supplied by Bethyl, used in various techniques. Bioz Stars score: 93/100, based on 10 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/rabbit+polyclonal+antibody+against+rbm14/pmc05037409-185-65-71?v=Bethyl
    Average 93 stars, based on 10 article reviews
    rabbit polyclonal antibody against rbm14 - by Bioz Stars, 2026-08
    93/100 stars

    Images

    1) Product Images from "Structural, super-resolution microscopy analysis of paraspeckle nuclear body organization"

    Article Title: Structural, super-resolution microscopy analysis of paraspeckle nuclear body organization

    Journal: The Journal of Cell Biology

    doi: 10.1083/jcb.201601071

    Core-shell arrangement of protein components in paraspeckle spheres I. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp in corpus luteal cells. Note that the paraspeckle proteins are grouped into the core, patch, and shell components depending on their distribution in the paraspeckles. (B) Dendrogram based on pairwise class-distance matrix generated using the machine-learning pattern-recognition tool wndchrm. The shell, core, and patch components are grouped into three distinct branches. (C) A model for the structure of paraspeckles. Neat1 folds in half with the 5′ and the 3′ regions bundled independently and radially arranged to construct scaffolds of paraspeckles. Bar, 500 nm.
    Figure Legend Snippet: Core-shell arrangement of protein components in paraspeckle spheres I. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp in corpus luteal cells. Note that the paraspeckle proteins are grouped into the core, patch, and shell components depending on their distribution in the paraspeckles. (B) Dendrogram based on pairwise class-distance matrix generated using the machine-learning pattern-recognition tool wndchrm. The shell, core, and patch components are grouped into three distinct branches. (C) A model for the structure of paraspeckles. Neat1 folds in half with the 5′ and the 3′ regions bundled independently and radially arranged to construct scaffolds of paraspeckles. Bar, 500 nm.

    Techniques Used: Generated, Construct

    Core-shell arrangement of protein components in paraspeckle spheres II. Higher magnification SIM images of two of the representative single paraspeckles stained with the Neat1 5′+3 ′ probe and Sfpq (A), Nono (B), Pspc1 (C), Fus (D), Rbm14 (E), Brg1 (F), and Tardbp (G). Intensity profiles along the dashed lines (a and b) are shown in the graphs next to the images. Bar, 100 nm.
    Figure Legend Snippet: Core-shell arrangement of protein components in paraspeckle spheres II. Higher magnification SIM images of two of the representative single paraspeckles stained with the Neat1 5′+3 ′ probe and Sfpq (A), Nono (B), Pspc1 (C), Fus (D), Rbm14 (E), Brg1 (F), and Tardbp (G). Intensity profiles along the dashed lines (a and b) are shown in the graphs next to the images. Bar, 100 nm.

    Techniques Used: Staining

    Fus-independent and dependent recruitment of paraspeckle proteins. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp, in MEFs derived from WT and Fus KO mice. Note that DBHS family proteins (Sfpq, Nono, and Pspc1) and Tardbp, but not Rbm14 and Brg1, are recruited to the putative transcription site in the absence of Fus. Arrowheads indicate paraspeckle-like nuclear bodies formed at the putative Neat1 transcription site in Fus KO MEFs. (B) Simultaneous detection of various forms of NEAT1 and NONO in HAP1 cells and FUS-deleted HAP1 cells (ΔFUS HAP1). Probes used to detect NEAT1 are shown in the top boxes. (C) Schematic drawing of full-length and mutant FUS protein exogenously expressed by lentiviruses. ΔN FUS lack the PrLD and ΔC FUS lack the RNA binding domains including RNA recognition motifs (RRM) and arginine (R)-glycine-glycine domain (RGG) as well as zinc finger domain (ZF). (D) Western blot analyses of lysate from the cells infected with control EGFP (C), full-length FUS (FL), ΔN FUS (ΔN), and ΔC FUS (ΔC). Note that migration of FL and ΔN are much slower than predicted molecular mass (57 and 35 kD, respectively), probably because of the presence of PrLD in these molecules. (E) Simultaneous detection of Neat1 5′+3′ and Nono in Fus KO MEFs expressing various forms of FUS protein. Note that the core-shell structure of paraspeckles was rescued with FL FUS, but not with mutant molecules that lack either PrLD or RNA binding domains. (F) Confirmation of the specificity of polyclonal [Fus (poly)] and monoclonal (Fus) antibodies against Fus. Mixtures of MEFs derived from WT and KO mice of Fus were stained with each antibody. Note the complete absence of signals in the Fus KO MEFs (arrowheads). The positions of the epitope of these antibodies are shown in the schematic drawing of the domain structure of Fus. (G) Simultaneous detection of Fus using polyclonal antibodies and mAbs that recognize the N- and C-terminal region of the protein, respectively. Bars: (A, B, E, and G) 500 nm; (F) 200 µm.
    Figure Legend Snippet: Fus-independent and dependent recruitment of paraspeckle proteins. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp, in MEFs derived from WT and Fus KO mice. Note that DBHS family proteins (Sfpq, Nono, and Pspc1) and Tardbp, but not Rbm14 and Brg1, are recruited to the putative transcription site in the absence of Fus. Arrowheads indicate paraspeckle-like nuclear bodies formed at the putative Neat1 transcription site in Fus KO MEFs. (B) Simultaneous detection of various forms of NEAT1 and NONO in HAP1 cells and FUS-deleted HAP1 cells (ΔFUS HAP1). Probes used to detect NEAT1 are shown in the top boxes. (C) Schematic drawing of full-length and mutant FUS protein exogenously expressed by lentiviruses. ΔN FUS lack the PrLD and ΔC FUS lack the RNA binding domains including RNA recognition motifs (RRM) and arginine (R)-glycine-glycine domain (RGG) as well as zinc finger domain (ZF). (D) Western blot analyses of lysate from the cells infected with control EGFP (C), full-length FUS (FL), ΔN FUS (ΔN), and ΔC FUS (ΔC). Note that migration of FL and ΔN are much slower than predicted molecular mass (57 and 35 kD, respectively), probably because of the presence of PrLD in these molecules. (E) Simultaneous detection of Neat1 5′+3′ and Nono in Fus KO MEFs expressing various forms of FUS protein. Note that the core-shell structure of paraspeckles was rescued with FL FUS, but not with mutant molecules that lack either PrLD or RNA binding domains. (F) Confirmation of the specificity of polyclonal [Fus (poly)] and monoclonal (Fus) antibodies against Fus. Mixtures of MEFs derived from WT and KO mice of Fus were stained with each antibody. Note the complete absence of signals in the Fus KO MEFs (arrowheads). The positions of the epitope of these antibodies are shown in the schematic drawing of the domain structure of Fus. (G) Simultaneous detection of Fus using polyclonal antibodies and mAbs that recognize the N- and C-terminal region of the protein, respectively. Bars: (A, B, E, and G) 500 nm; (F) 200 µm.

    Techniques Used: Derivative Assay, Mutagenesis, RNA Binding Assay, Western Blot, Infection, Control, Migration, Expressing, Staining



    Similar Products

    rabbit polyclonal antibodies against human rbm14  (Atlas Antibodies)
    92
    Atlas Antibodies rabbit polyclonal antibodies against human rbm14
    Rabbit Polyclonal Antibodies Against Human Rbm14, supplied by Atlas Antibodies, used in various techniques. Bioz Stars score: 92/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/rabbit+polyclonal+antibody+against+rbm14/pm37806532-71-1-18?v=Atlas+Antibodies
    Average 92 stars, based on 1 article reviews
    rabbit polyclonal antibodies against human rbm14 - by Bioz Stars, 2026-08
    92/100 stars
    		  Buy from Supplier
    rabbit polyclonal antibody against rbm14  (Bethyl)
    93
    Bethyl rabbit polyclonal antibody against rbm14
    Core-shell arrangement of protein components in paraspeckle spheres I. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, <t>Rbm14,</t> Brg1, and Tardbp in corpus luteal cells. Note that the paraspeckle proteins are grouped into the core, patch, and shell components depending on their distribution in the paraspeckles. (B) Dendrogram based on pairwise class-distance matrix generated using the machine-learning pattern-recognition tool wndchrm. The shell, core, and patch components are grouped into three distinct branches. (C) A model for the structure of paraspeckles. Neat1 folds in half with the 5′ and the 3′ regions bundled independently and radially arranged to construct scaffolds of paraspeckles. Bar, 500 nm.
    Rabbit Polyclonal Antibody Against Rbm14, supplied by Bethyl, used in various techniques. Bioz Stars score: 93/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
    https://www.bioz.com/product/rabbit+polyclonal+antibody+against+rbm14/pmc05037409-185-65-71?v=Bethyl
    Average 93 stars, based on 1 article reviews
    rabbit polyclonal antibody against rbm14 - by Bioz Stars, 2026-08
    93/100 stars
    		  Buy from Supplier

    Image Search Results


    Core-shell arrangement of protein components in paraspeckle spheres I. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp in corpus luteal cells. Note that the paraspeckle proteins are grouped into the core, patch, and shell components depending on their distribution in the paraspeckles. (B) Dendrogram based on pairwise class-distance matrix generated using the machine-learning pattern-recognition tool wndchrm. The shell, core, and patch components are grouped into three distinct branches. (C) A model for the structure of paraspeckles. Neat1 folds in half with the 5′ and the 3′ regions bundled independently and radially arranged to construct scaffolds of paraspeckles. Bar, 500 nm.

    Journal: The Journal of Cell Biology

    Article Title: Structural, super-resolution microscopy analysis of paraspeckle nuclear body organization

    doi: 10.1083/jcb.201601071

    Figure Lengend Snippet: Core-shell arrangement of protein components in paraspeckle spheres I. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp in corpus luteal cells. Note that the paraspeckle proteins are grouped into the core, patch, and shell components depending on their distribution in the paraspeckles. (B) Dendrogram based on pairwise class-distance matrix generated using the machine-learning pattern-recognition tool wndchrm. The shell, core, and patch components are grouped into three distinct branches. (C) A model for the structure of paraspeckles. Neat1 folds in half with the 5′ and the 3′ regions bundled independently and radially arranged to construct scaffolds of paraspeckles. Bar, 500 nm.

    Article Snippet: For the simultaneous detection of paraspeckle proteins, the following antibodies were used: mouse mAb against Sfpq (clone B92; Abcam), mouse mAb against Nono , mouse mAb against Pspc1 (clone 1L4; Sigma-Aldrich), mouse mAb against Fus (clone 4H11; Santa Cruz Biotechnology, Inc.), rabbit polyclonal antibody against Fus (ab84078; Abcam), rabbit polyclonal antibody against Brg1 (A300-813A; Bethyl Laboratories, Inc.), rabbit polyclonal antibody against Tardbp (10782-2-AP; Proteintech), and rabbit polyclonal antibody against Rbm14 (A300-311A; Bethyl Laboratories, Inc.).

    Techniques: Generated, Construct

    Core-shell arrangement of protein components in paraspeckle spheres II. Higher magnification SIM images of two of the representative single paraspeckles stained with the Neat1 5′+3 ′ probe and Sfpq (A), Nono (B), Pspc1 (C), Fus (D), Rbm14 (E), Brg1 (F), and Tardbp (G). Intensity profiles along the dashed lines (a and b) are shown in the graphs next to the images. Bar, 100 nm.

    Journal: The Journal of Cell Biology

    Article Title: Structural, super-resolution microscopy analysis of paraspeckle nuclear body organization

    doi: 10.1083/jcb.201601071

    Figure Lengend Snippet: Core-shell arrangement of protein components in paraspeckle spheres II. Higher magnification SIM images of two of the representative single paraspeckles stained with the Neat1 5′+3 ′ probe and Sfpq (A), Nono (B), Pspc1 (C), Fus (D), Rbm14 (E), Brg1 (F), and Tardbp (G). Intensity profiles along the dashed lines (a and b) are shown in the graphs next to the images. Bar, 100 nm.

    Article Snippet: For the simultaneous detection of paraspeckle proteins, the following antibodies were used: mouse mAb against Sfpq (clone B92; Abcam), mouse mAb against Nono , mouse mAb against Pspc1 (clone 1L4; Sigma-Aldrich), mouse mAb against Fus (clone 4H11; Santa Cruz Biotechnology, Inc.), rabbit polyclonal antibody against Fus (ab84078; Abcam), rabbit polyclonal antibody against Brg1 (A300-813A; Bethyl Laboratories, Inc.), rabbit polyclonal antibody against Tardbp (10782-2-AP; Proteintech), and rabbit polyclonal antibody against Rbm14 (A300-311A; Bethyl Laboratories, Inc.).

    Techniques: Staining

    Fus-independent and dependent recruitment of paraspeckle proteins. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp, in MEFs derived from WT and Fus KO mice. Note that DBHS family proteins (Sfpq, Nono, and Pspc1) and Tardbp, but not Rbm14 and Brg1, are recruited to the putative transcription site in the absence of Fus. Arrowheads indicate paraspeckle-like nuclear bodies formed at the putative Neat1 transcription site in Fus KO MEFs. (B) Simultaneous detection of various forms of NEAT1 and NONO in HAP1 cells and FUS-deleted HAP1 cells (ΔFUS HAP1). Probes used to detect NEAT1 are shown in the top boxes. (C) Schematic drawing of full-length and mutant FUS protein exogenously expressed by lentiviruses. ΔN FUS lack the PrLD and ΔC FUS lack the RNA binding domains including RNA recognition motifs (RRM) and arginine (R)-glycine-glycine domain (RGG) as well as zinc finger domain (ZF). (D) Western blot analyses of lysate from the cells infected with control EGFP (C), full-length FUS (FL), ΔN FUS (ΔN), and ΔC FUS (ΔC). Note that migration of FL and ΔN are much slower than predicted molecular mass (57 and 35 kD, respectively), probably because of the presence of PrLD in these molecules. (E) Simultaneous detection of Neat1 5′+3′ and Nono in Fus KO MEFs expressing various forms of FUS protein. Note that the core-shell structure of paraspeckles was rescued with FL FUS, but not with mutant molecules that lack either PrLD or RNA binding domains. (F) Confirmation of the specificity of polyclonal [Fus (poly)] and monoclonal (Fus) antibodies against Fus. Mixtures of MEFs derived from WT and KO mice of Fus were stained with each antibody. Note the complete absence of signals in the Fus KO MEFs (arrowheads). The positions of the epitope of these antibodies are shown in the schematic drawing of the domain structure of Fus. (G) Simultaneous detection of Fus using polyclonal antibodies and mAbs that recognize the N- and C-terminal region of the protein, respectively. Bars: (A, B, E, and G) 500 nm; (F) 200 µm.

    Journal: The Journal of Cell Biology

    Article Title: Structural, super-resolution microscopy analysis of paraspeckle nuclear body organization

    doi: 10.1083/jcb.201601071

    Figure Lengend Snippet: Fus-independent and dependent recruitment of paraspeckle proteins. (A) Simultaneous detection of Neat1 and seven of the protein components of paraspeckles, including Sfpq, Nono, Pspc1, Fus, Rbm14, Brg1, and Tardbp, in MEFs derived from WT and Fus KO mice. Note that DBHS family proteins (Sfpq, Nono, and Pspc1) and Tardbp, but not Rbm14 and Brg1, are recruited to the putative transcription site in the absence of Fus. Arrowheads indicate paraspeckle-like nuclear bodies formed at the putative Neat1 transcription site in Fus KO MEFs. (B) Simultaneous detection of various forms of NEAT1 and NONO in HAP1 cells and FUS-deleted HAP1 cells (ΔFUS HAP1). Probes used to detect NEAT1 are shown in the top boxes. (C) Schematic drawing of full-length and mutant FUS protein exogenously expressed by lentiviruses. ΔN FUS lack the PrLD and ΔC FUS lack the RNA binding domains including RNA recognition motifs (RRM) and arginine (R)-glycine-glycine domain (RGG) as well as zinc finger domain (ZF). (D) Western blot analyses of lysate from the cells infected with control EGFP (C), full-length FUS (FL), ΔN FUS (ΔN), and ΔC FUS (ΔC). Note that migration of FL and ΔN are much slower than predicted molecular mass (57 and 35 kD, respectively), probably because of the presence of PrLD in these molecules. (E) Simultaneous detection of Neat1 5′+3′ and Nono in Fus KO MEFs expressing various forms of FUS protein. Note that the core-shell structure of paraspeckles was rescued with FL FUS, but not with mutant molecules that lack either PrLD or RNA binding domains. (F) Confirmation of the specificity of polyclonal [Fus (poly)] and monoclonal (Fus) antibodies against Fus. Mixtures of MEFs derived from WT and KO mice of Fus were stained with each antibody. Note the complete absence of signals in the Fus KO MEFs (arrowheads). The positions of the epitope of these antibodies are shown in the schematic drawing of the domain structure of Fus. (G) Simultaneous detection of Fus using polyclonal antibodies and mAbs that recognize the N- and C-terminal region of the protein, respectively. Bars: (A, B, E, and G) 500 nm; (F) 200 µm.

    Article Snippet: For the simultaneous detection of paraspeckle proteins, the following antibodies were used: mouse mAb against Sfpq (clone B92; Abcam), mouse mAb against Nono , mouse mAb against Pspc1 (clone 1L4; Sigma-Aldrich), mouse mAb against Fus (clone 4H11; Santa Cruz Biotechnology, Inc.), rabbit polyclonal antibody against Fus (ab84078; Abcam), rabbit polyclonal antibody against Brg1 (A300-813A; Bethyl Laboratories, Inc.), rabbit polyclonal antibody against Tardbp (10782-2-AP; Proteintech), and rabbit polyclonal antibody against Rbm14 (A300-311A; Bethyl Laboratories, Inc.).

    Techniques: Derivative Assay, Mutagenesis, RNA Binding Assay, Western Blot, Infection, Control, Migration, Expressing, Staining