Phospho-BLM (T99) Polyclonal Antibody

The Bloom syndrome gene product is related to the RecQ subset of DExH box-containing DNA helicases and has both DNA-stimulated ATPase and ATP-dependent DNA helicase activities. Mutations causing Bloom syndrome delete or alter helicase motifs and may disable the 3'-5' helicase activity. The normal protein may act to suppress inappropriate recombination.

Introducing the Phospho-BLM (T99) Polyclonal Antibody, a cutting-edge scientific tool meticulously designed to facilitate advanced research in the field of molecular biology. This antibody, derived from a polyclonal source, exhibits exceptional specificity and sensitivity, enabling accurate detection and analysis of the phosphorylated Bloom syndrome protein (BLM) at threonine residue 99.

Crafted with utmost precision, the Phospho-BLM (T99) Polyclonal Antibody showcases unparalleled affinity towards the phosphorylated form of BLM, ensuring reliable and reproducible results. Its robust performance is attributed to the rigorous purification process, which guarantees minimal cross-reactivity with non-phosphorylated BLM or other related proteins, thereby minimizing false positives and enhancing experimental accuracy.

This antibody's versatility is exemplified by its compatibility with various applications, including Western blotting, immunoprecipitation, and immunofluorescence. Its exceptional sensitivity allows for the detection of even low-abundance phosphorylated BLM, enabling researchers to delve deeper into the intricate mechanisms underlying cellular processes.

Furthermore, the Phospho-BLM (T99) Polyclonal Antibody exhibits remarkable stability, ensuring consistent performance across a wide range of experimental conditions. Its long shelf life and reliable performance make it an indispensable tool for both basic and clinical research, facilitating breakthrough discoveries and advancements in the understanding of BLM-related pathologies.

In summary, the Phospho-BLM (T99) Polyclonal Antibody represents a pinnacle of scientific innovation, offering researchers an invaluable resource to unravel the complexities of phosphorylated BLM. With its exceptional specificity, sensitivity, and versatility, this antibody is poised to revolutionize the field of molecular biology, empowering scientists to unlock new frontiers in biomedical research.