CMP-C9-Azido-Neu5Ac

Structure & Properties:

• Molecular Weight (MW): Approximately 677 g/mol (depending on the specific form)
• Chemical Formula: C20H30N6O16P2 (approximate)
• Synonyms: CMP-9-N3-Neu5Ac, CMP-9-azido-9-deoxy-Neu5Ac
• Functional Groups: Contains an azido group (-N3) at the 9-position of Neu5Ac, which is critical for bioorthogonal reactions.

Biological Role:

• Modified Sialic Acid Donor: CMP-C9-Azido-Neu5Ac acts as a donor of azido-modified sialic acid in sialylation reactions, incorporating the azido-modified Neu5Ac into glycoconjugates, such as glycoproteins and glycolipids.
• Role in Glycosylation: This molecule participates in the sialylation of glycans, where it is transferred by sialyltransferases to glycan structures, enabling the study of sialylated glycoproteins and glycolipids.

Applications:

• Bioorthogonal Chemistry: The azido group on CMP-C9-Azido-Neu5Ac allows for specific labeling of sialylated glycans via click chemistry, enabling researchers to tag and track these molecules in various biological contexts.
• Glycan Labeling: It is used to label sialic acid-containing glycans in cells or tissues, which can then be detected with fluorescent or other reporter molecules.

Significance in Research:

• Glycan Visualization: CMP-C9-Azido-Neu5Ac is valuable in tracking sialylated glycans, which play essential roles in cell-cell communication, pathogen-host interactions, and immune response.
• Sialylation Studies: The compound is useful for studying the dynamics of sialylation in biological processes, including cancer progression, immune modulation, and infectious diseases.

Key Roles:

• Sialylation Tracking: CMP-C9-Azido-Neu5Ac facilitates the labeling and visualization of sialylated glycans, helping researchers investigate the roles of sialylation in cellular processes.
• Cellular Imaging: It is widely used in live-cell imaging studies to observe the distribution and function of sialylated glycans in real-time.

Storage and Stability:

• Storage: Store at -20°C in a moisture-free environment for optimal stability.
• Stability: The compound is stable under these storage conditions but may degrade if exposed to heat, moisture, or light.

Research Applications:

• Glycobiology: CMP-C9-Azido-Neu5Ac is employed in studies of glycan structure and function, particularly focusing on the role of sialic acids in glycosylation.
• Synthetic Biology: It is used in synthetic biology to generate modified sialylated glycans for various research and therapeutic applications.

Potential Impact:

• Therapeutic Development: CMP-C9-Azido-Neu5Ac could be leveraged in the development of therapies targeting sialylation pathways, which are involved in cancer metastasis, immune evasion, and viral infections.
• Bioorthogonal Labeling: Its use in click chemistry enables precise labeling of sialylated glycans, facilitating research in cell biology, disease mechanisms, and therapeutic interventions.

Key Research Areas:

• Cancer Biology: Sialylation plays a key role in cancer cell survival and immune evasion, making CMP-C9-Azido-Neu5Ac a useful tool in studying these processes.
• Immunology: This compound is valuable in research on immune responses, particularly those involving sialylated glycoproteins and glycolipids.

Conclusion:

CMP-C9-Azido-Neu5Ac is a critical tool in glycosylation research, enabling the selective labeling and tracking of sialylated glycans in biological systems. Its bioorthogonal properties make it invaluable for studying sialic acid biology, with potential applications in therapeutic development and synthetic biology