Thanksgiving Deal Recombinant Mouse Nbl1/dand1 Protein (his Tag) Up To 40% Off [kzAuWLv4]

Thanksgiving Deal Recombinant Mouse Nbl1/dand1 Protein (his Tag) Up To 40% Off [kzAuWLv4]

Discover the pure and potent Thanksgiving Deal Recombinant Mouse Nbl1/dand1 Protein (his Tag) Up To 40% Off [kzAuWLv4], a crucial component for your research needs. This high-quality protein is produced using HEK293 Cells, ensuring optimal purity and functionality. With its specific His Tag, this protein is easily detectable and separable, making it an ideal choice for various applications in molecular biology and research.

• High purity: >95% as determined by reducing SDS-PAGE.
• Stable storage: Lyophilized protein stable for up to 12 months when stored at -20 to -80°C.

Product Properties and Specifications

The Thanksgiving Deal Recombinant Mouse Nbl1/dand1 Protein (his Tag) Up To 40% Off [kzAuWLv4] boasts a calculated molecular weight of 18.4 kDa and an observed molecular weight of 25-28 kDa. This protein is expressed in HEK293 Cells, offering a reliable source for your research. The protein is formulated in PBS, pH 7.4, with added protectants like trehalose and mannitol to ensure stability during storage and reconstitution.

• Bio-activity: Not validated for activity, allowing for customization in your experiments.
• Endotoxin level: < 1.0 EU per μg of the protein as determined by the LAL method.

Applications and Benefits

The Thanksgiving Deal Recombinant Mouse Nbl1/dand1 Protein (his Tag) Up To 40% Off [kzAuWLv4] is a valuable tool for researchers studying neuroblastoma, growth, development, and the cell cycle. Its diverse applications include protein-protein interactions, enzyme assays, and as a control for Western blotting. This protein is particularly useful for researchers in the fields of cancer biology, developmental biology, and neuroscience.

• Research in neuroblastoma: Investigate the role of NBL1/DAND1 in neuroblastoma and its potential as a therapeutic target.
• Developmental biology studies: Utilize this protein to explore the impact of NBL1/DAND1 on early embryo development.