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RFP Antibodies

(Red Fluorescent Protein (RFP))
Antibodies that detect Red Fluorescent Protein (RFP) are used in various biological and biomedical research applications (e.g. Western Blot) to visualize and study cellular processes, protein localization, and gene expression. Red Fluorescent Protein is a type of fluorescent protein that emits red light when exposed to specific wavelengths of light. It's often used as a molecular tag to label proteins and other cellular structures in live or fixed cells and tissues. Here are some common applications of RFP antibodies:
  • Cellular Localization and Protein Trafficking: Researchers can fuse the RFP protein to their protein of interest. By using an RFP antibody, they can detect the presence and subcellular localization of the fusion protein within cells. This helps in understanding the dynamics and movement of proteins within cellular compartments.
  • Gene Expression Studies: RFP can also be used as a marker for gene expression. Researchers can use RFP-tagged constructs to monitor the expression of specific genes. Antibodies against RFP are then used to detect the RFP-tagged protein produced from these genes.
  • Protein Interaction Studies: RFP can be used in protein-protein interaction studies. Proteins of interest are tagged with RFP and their interactions with other proteins are investigated. Antibodies against RFP can then be used to detect these interactions either through immunoprecipitation or other methods.
  • Live Cell Imaging: RFP-tagged proteins can be imaged in real-time within live cells using fluorescence microscopy. This allows researchers to track protein dynamics, localization changes, and cellular responses in real-time.
  • Flow Cytometry: Antibodies against RFP can be used in flow cytometry (FACS) to quantify the expression levels of RFP-tagged proteins in a population of cells. This is particularly useful for high-throughput studies.
  • High-Content Screening: RFP antibodies can be used in high-content screening assays to study various cellular processes and responses across large sets of conditions or compounds.
  • Visualization of Cellular Structures: RFP can be fused to specific cellular structures such as organelles, cytoskeletal components, or membranes. Antibodies against RFP allow researchers to visualize these structures and their dynamics.
  • Co-localization Studies: Antibodies against RFP can be used in combination with antibodies against other fluorescent proteins to study co-localization and potential interactions between different cellular components.

54 results

RFP Reactivity: Discosoma WB, ELISA, DB Host: Llama Monoclonal RFP40 unconjugated single-domain Antibody (sdAb) Recombinant Antibody
Catalog No. ABIN7565835
 
RFP Reactivity: Discosoma WB, ELISA Host: Rabbit Polyclonal unconjugated
Catalog No. ABIN2349652
 
RFP Reactivity: Discosoma WB, ELISA, FM Host: Goat Polyclonal unconjugated
Catalog No. ABIN7565833
 
RFP Reactivity: Discosoma Host: Rabbit Monoclonal Alexa Fluor 680 Recombinant Antibody
Catalog No. ABIN6904636
 
RFP Reactivity: Discosoma Host: Rabbit Monoclonal Alexa Fluor 555 Recombinant Antibody
Catalog No. ABIN6888573
 
RFP Reactivity: Discosoma Host: Rabbit Monoclonal Biotin Recombinant Antibody
Catalog No. ABIN6872510
 
RFP Reactivity: Discosoma Host: Rabbit Monoclonal Alexa Fluor 647 Recombinant Antibody
Catalog No. ABIN6915187
 
RFP Reactivity: Discosoma Host: Rabbit Monoclonal Alexa Fluor 488 Recombinant Antibody
Catalog No. ABIN6816194
 
RFP Reactivity: Discosoma Host: Rabbit Monoclonal Alexa Fluor 750 Recombinant Antibody
Catalog No. ABIN6856446
 
RFP Reactivity: Discosoma Host: Rabbit Monoclonal Alexa Fluor 594 Recombinant Antibody
Catalog No. ABIN6832257
 
RFP Reactivity: Discosoma WB, ELISA Host: Mouse Monoclonal unconjugated
Catalog No. ABIN865861
 
RFP Reactivity: Discosoma WB, ELISA Host: Mouse Monoclonal unconjugated
Catalog No. ABIN865860
 
RFP Reactivity: Discosoma WB, ELISA, IHC Host: Rabbit Polyclonal HRP
Catalog No. ABIN2349650
 
RFP Reactivity: Discosoma WB, ELISA, IHC Host: Rabbit Polyclonal Biotin
Catalog No. ABIN2349660
 
  • Type Primary
    • Primary
  • Application
    • Western Blotting (WB)
    • ELISA
    • Immunofluorescence (IF)
    • Flow Cytometry (FACS)
    • Immunohistochemistry (IHC)
    • Fluorescence Microscopy (FM)
    • Immunocytochemistry (ICC)
    • Immunoprecipitation (IP)
    • Immunohistochemistry (Frozen Sections) (IHC (fro))
    • Dot Blot (DB)
    • Immunohistochemistry (Paraffin-embedded Sections) (IHC (p))
    • FLISA
    • Immunochromatography (IC)
  • Reactivity
    • Discosoma
  • Cited in publications
  • Images available
  • Independent Validation
  • Preservative free only
  • Carrier free only
  • Host
    • Rabbit
    • Mouse
    • Alpaca
    • Goat
    • Chicken
    • Llama
  • Clonality
    • Monoclonal
    • Polyclonal
  • Clone
    • 2B12
    • 2B12-2A1
    • 3G5
    • 8E5-G7
    • RF5R
    • 1DS-1A6
    • 1G11
    • 25
    • 8D6
    • RFP40
  • Binding Specificity
    • AA 21-245
    • N-Term
    • AA 22-36
  • Conjugate
    • Un-conjugated
    • Biotin
    • Alexa Fluor 647
    • AZDye 568
    • Agarose Beads
    • Atto 488
    • HRP
    • Alexa Fluor 488
    • Alexa Fluor 555
    • Alexa Fluor 594
    • Alexa Fluor 680
    • Alexa Fluor 750
    • DBCO
    • DyLight 405
    • DyLight 488
    • DyLight 550
    • DyLight 633
    • FITC
  • Isotype
    • IgG
    • IgG1
    • IgG2a
    • IgG2a kappa
    • IgY
  • Protein Type
    • Recombinant Antibody
  • Format
    • Liquid
    • Lyophilized
  • Fragment
    • single-domain Antibody (sdAb)
  • Supplier
    • antibodies-online
    • Rockland
    • Signalway
    • USBio
    • Acris
    • Enogene Biotech
    • ProteoGenix

Latest Publications for our RFP Antibodies

Simpson Ragdale, Clements, Tang, Deltcheva, Andreassi, Lai, Chang, Pandrea, Andrew, Game, Uddin, Ellis, Enver, Riccio, Marguerat, Parrinello: "Injury primes mutation-bearing astrocytes for dedifferentiation in later life." in: Current biology : CB, (2023) (PubMed).

Amodeo, Davies, Martinez-Segura, Clements, Ragdale, Bailey, Dos Santos, MacRae, Mokochinski, Kramer, Garcia-Diaz, Gould, Marguerat, Parrinello: "Diet suppresses glioblastoma initiation in mice by maintaining quiescence of mutation-bearing neural stem cells." in: Developmental cell, (2023) (PubMed).

Scholz, Dahse, Kemkemer, Bormann, Auger, Vieira Contreras, Ernst, Staake, Körner, Buhlan, Meyer-Mölck, Chung, Blanco-Redondo, Klose, Jarboui, Ljaschenko, Bigl, Langenhan: "Molecular sensing of mechano- and ligand-dependent adhesion GPCR dissociation." in: Nature, Vol. 615, Issue 7954, pp. 945-953, (2023) (PubMed).

Middelkamp, Ruck, Krisp, Sumisławski, Mohammadi, Dottermusch, Meister, Küster, Schlüter, Windhorst, Neumann: "Overexpression of Lin28A in neural progenitor cells in vivo does not lead to brain tumor formation but results in reduced spine density." in: Acta neuropathologica communications, Vol. 9, Issue 1, pp. 185, (2022) (PubMed).

Pouchelon, Vergara, McMahon, Gorissen, Lin, Vormstein-Schneider, Niehaus, Burbridge, Wester, Sherer, Fernandez-Otero, Allaway, Pelkey, Chittajallu, McBain, Fan, Nasse, Wildenberg, Fishell et al.: "A versatile viral toolkit for functional discovery in the nervous system. ..." in: Cell reports methods, Vol. 2, Issue 6, pp. 100225, (2022) (PubMed).

Dumoulin, Zuñiga, Stoeckli: "Axon guidance at the spinal cord midline-A live imaging perspective." in: The Journal of comparative neurology, (2021) (PubMed).

Kim, Liu, Wang, Zhang, Bathini, Brown, Lin, Washington, Sun, Lindtner, Lee, Wang, Shimogori, Rubenstein, Blackshaw: "Gene regulatory networks controlling differentiation, survival, and diversification of hypothalamic Lhx6-expressing GABAergic neurons." in: Communications biology, Vol. 4, Issue 1, pp. 95, (2021) (PubMed).

Park, Lofton, Li, Rasin: "Extrinsic Regulators of mRNA Translation in Developing Brain: Story of WNTs." in: Cells, Vol. 10, Issue 2, (2021) (PubMed).

Dottermusch, Sumisławski, Krevet, Middelkamp, Voß, Siebels, Bartsch, Sotlar, Meyer, Frank, Korshunov, Glatzel, Schüller, Neumann: "Co-activation of Sonic hedgehog and Wnt signaling in murine retinal precursor cells drives ocular lesions with features of intraocular medulloepithelioma." in: Oncogenesis, Vol. 10, Issue 11, pp. 78, (2021) (PubMed).

Brooks, Clements, Burden, Kocher, Richards, Devesa, Zakka, Woodberry, Ellis, Jaunmuktane, Brandner, Morrison, Pollard, Dirks, Marguerat, Parrinello: "The white matter is a pro-differentiative niche for glioblastoma." in: Nature communications, Vol. 12, Issue 1, pp. 2184, (2021) (PubMed).

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