d(U*pU*pU*pU*pU*pU*)

What is d(U*pU*pU*pU*pU*pU*)

The product **d(U*pU*pU*pU*pU*pU*)** represents a cutting-edge innovation in the field of advanced computational and mathematical modeling. Designed for professionals and researchers, this product leverages a unique algorithmic framework to optimize complex systems and processes. By integrating multiple layers of transformation and optimization, **d(U*pU*pU*pU*pU*pU*)** enables users to achieve unparalleled precision and efficiency in their analyses. Whether applied in data science, engineering, or theoretical research, this tool empowers users to tackle intricate challenges with confidence. Its robust architecture and scalable design make it an indispensable asset for those seeking to push the boundaries of innovation and problem-solving in their respective domains.

Preparation Process: To prepare d(U*pU*pU*pU*pU*pU*), follow these steps: 1. **Solid-Phase Synthesis**: Use controlled pore glass (CPG) as the solid support with the first uridine (U) attached via a 3'-succinate linker. 2. **Deprotection**: Remove the 5'-dimethoxytrityl (DMT) group with 3% trichloroacetic acid (TCA) in dichloromethane (DCM). 3. **Coupling**: Activate the phosphoramidite of the next U with 1H-tetrazole, then couple to the growing chain. 4. **Oxidation**: Stabilize the phosphite triester with iodine/water/pyridine to form phosphate (P=O) linkages. 5. **Repetition**: Repeat steps 2–4 for each additional U unit. 6. **Cleavage & Deprotection**: Treat with concentrated ammonium hydroxide (55°C, 12–16 h) to cleave from CPG and remove protecting groups. 7. **Purification**: Isolate the product via HPLC or PAGE, then desalt using size-exclusion chromatography.

Usage Scenarios: The compound d(U*pU*pU*pU*pU*pU*), a hexamer of deoxyuridine monophosphate (dUMP) linked by phosphorothioate (p*) bonds, is primarily used in molecular biology and therapeutic research. Its phosphorothioate backbone enhances nuclease resistance, making it valuable for antisense oligonucleotide applications, where it targets mRNA to modulate gene expression. This compound is also explored in aptamer development and diagnostic assays due to its stable hybridization properties. Additionally, it serves as a model for studying DNA-RNA interactions and enzymatic processes involving modified nucleotides. Its unique structure aids in investigating nucleic acid stability, delivery mechanisms, and potential therapeutic applications, such as antiviral or anticancer strategies.

d(U*pU*pU*pU*pU*pU*) Basic Info

d(U*pU*pU*pU*pU*pU*) Price