- Tel: 858.663.9055
Email: info@nsjbio.com
- Tel: 858.663.9055
- Email: info@nsjbio.com
NF-kB Antibody detects proteins from the nuclear factor kappa-light-chain-enhancer of activated B cells (NF-κB) family, one of the most important groups of transcription factors in biology. NF-kB proteins — including RelA (p65), RelB, c-Rel, p50, and p52 — regulate the expression of hundreds of genes involved in immunity, inflammation, cell proliferation, stress adaptation, and apoptosis. In resting cells, NF-kB dimers remain inactive in the cytoplasm, bound by IκB inhibitor proteins. Upon stimulation by cytokines, pathogens, oxidative stress, or DNA damage, IκB proteins are degraded, freeing NF-kB to enter the nucleus and initiate transcription.
NF-kB signaling influences nearly every aspect of immune function. It is required for effective host defense, but chronic or uncontrolled activation drives autoimmune disease, persistent inflammation, and tumor development. Because of this broad relevance, the NF-kB Antibody is widely used in immunology, oncology, neuroscience, and pharmacology. Scientists apply NF-kB Antibodies to track subunit expression, analyze nuclear translocation, and evaluate therapeutic inhibitors.
NSJ Bioreagents offers NF-kB Antibodies validated across diverse applications, including immunohistochemistry, western blotting, immunofluorescence, ELISA, and immunoprecipitation. Each antibody undergoes strict validation to ensure specificity to NF-kB subunits and consistent reproducibility.
By choosing an NF-kB Antibody from NSJ Bioreagents, researchers gain reagents optimized for long-term reliability. These antibodies reduce background, minimize cross-reactivity, and provide sharp, clean signals across tissue types. NSJ Bioreagents is committed to providing NF-kB Antibodies that deliver dependable results, whether you are studying basic transcriptional regulation, mapping pathways in disease, or validating therapeutic candidates in translational models.
The NF-kB Antibody has extensive applications that span fundamental biology to clinical translation. Because NF-kB influences so many cellular pathways, NF-kB Antibodies are used in a variety of experimental and medical contexts:
Cytokine regulation: NF-kB Antibodies are used to measure activation of pro-inflammatory cytokines such as TNF-α, IL-1β, and IL-6.
Innate immunity: The NF-kB Antibody helps analyze macrophage and dendritic cell responses to bacterial and viral pathogens.
Autoimmune disease: NF-kB Antibodies are applied in models of rheumatoid arthritis, lupus, and psoriasis, where dysregulated signaling drives chronic inflammation.
Tumor survival: The NF-kB Antibody is critical for examining constitutive NF-kB activity in cancers such as lymphomas, multiple myeloma, and solid tumors including breast and colorectal cancers.
Angiogenesis and metastasis: NF-kB Antibodies are used to study how tumors exploit NF-kB to promote blood vessel growth and spread to distant organs.
Therapeutic evaluation: NF-kB Antibodies validate drug candidates designed to inhibit NF-kB activity, supporting preclinical cancer therapy development.
Viral infection: Viruses often manipulate NF-kB pathways to suppress immune responses. The NF-kB Antibody is applied in studies of HIV, influenza, and coronaviruses.
Antiviral therapy: NF-kB Antibodies are used to test how drugs influence transcriptional responses in infected cells.
Pathway mapping: The NF-kB Antibody tracks nuclear translocation, phosphorylation, and transcriptional activity of NF-kB dimers.
Redox biology: NF-kB Antibodies are applied in oxidative stress models, clarifying how reactive oxygen species modify signaling.
Apoptosis regulation: The NF-kB Antibody supports studies into how NF-kB prevents cell death in stressed or cancerous cells.
High-throughput screening: NF-kB Antibodies are used to evaluate inhibitors targeting IKK, IκB, or NF-kB subunits directly.
Biomarker validation: The NF-kB Antibody helps establish NF-kB activity as a biomarker in oncology and inflammatory disease trials.
Therapeutic monitoring: NF-kB Antibodies are used to monitor whether treatments reduce abnormal NF-kB signaling in patients or model systems.
NF-kB is a master regulator of inflammation, survival, and immunity. The NF-kB Antibody provides researchers with an indispensable tool to monitor this pathway. Without NF-kB Antibodies, it would be impossible to map how NF-kB drives gene expression in health and disease.
In oncology, NF-kB Antibodies are applied to biopsy samples to evaluate constitutive activity, which often correlates with aggressive tumors. In autoimmunity, the NF-kB Antibody is central to research aimed at balancing protective versus pathological inflammation. In drug development, NF-kB Antibodies validate small molecules and biologics intended to selectively inhibit hyperactive NF-kB signaling.
NF-kB Antibodies also help distinguish between physiological activation, which is required for host defense and tissue repair, and pathological activation, which sustains disease. This makes the NF-kB Antibody valuable for both fundamental biology and clinical translation.
For more than three decades, NF-kB has remained one of the most intensively studied signaling pathways due to its central roles in immunity, cancer biology, and chronic inflammation. The NF-kB Antibody offers precise detection of NF-kB proteins, while NF-kB Antibodies more broadly enable progress in diagnostics, biomarker development, and therapeutic innovation. By connecting molecular mechanisms to clinical outcomes, these antibodies continue to shape our understanding of biology and drive advancements in patient care.
Immunofluorescent staining of PFA-fixed human HeLa cells using RELA antibody (green, clone PCRP-RELA-2B6) and phalloidin (red).
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