Customer Favorite Recombinant Rat Ddr2 Kinase/cd167b Protein (fc Tag)(active) Bonkers Deal: 70% Off [qFtArXSP]

Customer Favorite Recombinant Rat Ddr2 Kinase/cd167b Protein (fc Tag)(active) Bonkers Deal: 70% Off [qFtArXSP]

Introducing our high-quality Customer Favorite Recombinant Rat Ddr2 Kinase/cd167b Protein (fc Tag)(active) Bonkers Deal: 70% Off [qFtArXSP], a cutting-edge research tool designed for in-depth studies on cell proliferation and tumor metastasis. This active protein, derived from HEK293 cells, offers exceptional purity and functionality, making it an ideal choice for various research applications. With its specific binding capabilities to Rat tail Collagen I, this protein is a valuable asset for exploring the role of DDR2 in cellular matrix and matrix metalloproteinase expression.

Product Specifications and Benefits

Our Customer Favorite Recombinant Rat Ddr2 Kinase/cd167b Protein (fc Tag)(active) Bonkers Deal: 70% Off [qFtArXSP] boasts a purity of over 80% as determined by reducing SDS-PAGE, ensuring reliable and consistent results. This active protein has a calculated molecular weight of 69.5 kDa and an observed molecular weight of 110 kDa, with a C-hFc tag for easy identification and tracking. The protein is bio-active, as demonstrated by its ability to bind with Rat tail Collagen I in a functional ELISA. Key benefits include its high purity, specific binding capabilities, and active status, making it an essential tool for researchers investigating DDR2 and its role in cellular processes.

Applications and Target Audience

This Customer Favorite Recombinant Rat Ddr2 Kinase/cd167b Protein (fc Tag)(active) Bonkers Deal: 70% Off [qFtArXSP] is ideal for a wide range of research applications, including studies on cell proliferation, tumor metastasis, and the interaction between DDR2 and collagen. It is particularly useful for researchers in the fields of oncology, cell biology, and molecular biology. By providing a reliable and active protein source, this product enables scientists to delve deeper into the mechanisms behind DDR2-mediated cellular processes, ultimately leading to advancements in the understanding and treatment of diseases associated with cell proliferation and tumor metastasis.