TNF-alpha Products
TNF-alpha (Tumor necrosis factor alpha) plays a central role in inflammation, immune system development, apoptosis, and lipid metabolism. TNF-alpha was first identified as a cytotoxic factor produced by macrophages capable of killing mouse tumor cells. It is the prototypic ligand and along with Lymphotoxin-alpha, were identified as the first members of the TNF superfamily. Active TNF-alpha and other members of the TNF superfamily exist as a homotrimer with high structural homology. Receptor binding occurs at the interface of two TNF-alpha monomers. And receptor activation occurs when all three monomer interfaces are engaged with a receptor. For TNF-alpha, receptor binding and activation occurs through TNF R1 or TNF RII, and subsequently leads to activation of NF-kB or MAPK signaling pathways. Another pathway that TNF-alpha can activate utilizes the death domain of TNF RI to induce apoptosis. TNF-alpha promotes the inflammatory response largely through NF-kB signaling, and inhibition of TNF-alpha has proven successful in treating many autoimmune disorders. TNF-alpha is also present on the cell surface as membrane-bound TNF-alpha can induce the lysis of neighboring tumor cells and virus infected cells. TNF-alpha protein is translated as a type II transmembrane protein containing an N-terminal transmembrane domain. The soluble cytokine is released from its cell-anchoring TM domain by proteolytic processing by metalloproteases.
78 results for "TNF-alpha" in Products
78 results for "TNF-alpha" in Products
TNF-alpha Products
TNF-alpha (Tumor necrosis factor alpha) plays a central role in inflammation, immune system development, apoptosis, and lipid metabolism. TNF-alpha was first identified as a cytotoxic factor produced by macrophages capable of killing mouse tumor cells. It is the prototypic ligand and along with Lymphotoxin-alpha, were identified as the first members of the TNF superfamily. Active TNF-alpha and other members of the TNF superfamily exist as a homotrimer with high structural homology. Receptor binding occurs at the interface of two TNF-alpha monomers. And receptor activation occurs when all three monomer interfaces are engaged with a receptor. For TNF-alpha, receptor binding and activation occurs through TNF R1 or TNF RII, and subsequently leads to activation of NF-kB or MAPK signaling pathways. Another pathway that TNF-alpha can activate utilizes the death domain of TNF RI to induce apoptosis. TNF-alpha promotes the inflammatory response largely through NF-kB signaling, and inhibition of TNF-alpha has proven successful in treating many autoimmune disorders. TNF-alpha is also present on the cell surface as membrane-bound TNF-alpha can induce the lysis of neighboring tumor cells and virus infected cells. TNF-alpha protein is translated as a type II transmembrane protein containing an N-terminal transmembrane domain. The soluble cytokine is released from its cell-anchoring TM domain by proteolytic processing by metalloproteases.
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, Inhibition Activity |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |
Reactivity: | Human |
Details: | Human IgG1 kappa Monoclonal Clone #cA2 (Infliximab) |
Applications: | WB, ELISA, Flow, Func |
Reactivity: | Human |
Details: | Human IgG1 kappa Monoclonal Clone #cA2 (Infliximab) |
Applications: | WB, ELISA, Flow, Func |
Reactivity: | Human |
Details: | Human IgG1 kappa Monoclonal Clone #cA2 (Infliximab) |
Applications: | WB, ELISA, Flow, Func |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #B-F7 |
Applications: | ELISA |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #B-F7 |
Applications: | ELISA |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #B-F7 |
Applications: | ELISA |
Reactivity: | Human, Mouse |
Details: | Human IgG1 kappa Monoclonal Clone #D2E7 (Adalimumab) |
Applications: | IHC, ELISA, ICC/IF, B/N |
Reactivity: | Human, Mouse |
Details: | Human IgG1 kappa Monoclonal Clone #D2E7 (Adalimumab) |
Applications: | IHC, ELISA, ICC/IF, B/N |
Reactivity: | Human, Rat, Mouse (Negative) |
Details: | Mouse IgG1 kappa Monoclonal Clone #J2D10 |
Applications: | WB, ICC/IF, Flow, CyTOF-ready |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, CyTOF-ready, B/N |
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, CyTOF-ready, B/N |
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, CyTOF-ready, B/N |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, CyTOF-ready, B/N |
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, CyTOF-ready, B/N |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, CyTOF-ready, B/N |
Reactivity: | Human, Mouse |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N1E7 |
Applications: | WB, Flow, CyTOF-ready, B/N |
Reactivity: | Human |
Details: | Mouse IgG1 kappa Monoclonal Clone #6N2E12 |
Applications: | WB, Flow |