5-BDBD (P2X4 Receptor Antagonist) provides a small-molecule inhibitor for investigating purinergic receptor signaling, neuroinflammation, and ATP-mediated cellular responses and specifically antagonizes the P2X4 receptor, an ATP-gated ion channel involved in calcium signaling, neuronal communication, and immune cell activation. Researchers use 5-BDBD to examine P2X4-dependent pathways in neuroscience, inflammation, and cellular signaling studies.
Key Features and Benefits
- P2X4 Receptor Antagonism: Inhibits ATP-evoked P2X4 receptor activity specifically for investigating purinergic signaling mechanisms.
- Small-Molecule Inhibitor: Provides a pharmacological approach for studying P2X4 receptor function in compatible experimental systems.
- ATP-Gated Ion Channel Research: Supports investigation of P2X4-mediated cation influx and downstream cellular responses.
- Purinergic Signaling Modulation: Enables analysis of extracellular ATP signaling and its contribution to cellular communication.
- Neuroinflammation Research: Supports studies of P2X4 receptor involvement in microglial activation and inflammatory signaling.
- Calcium Signaling Studies: Helps researchers investigate receptor-dependent calcium responses and intracellular signaling pathways.
- Neuronal Function Research: Enables examination of P2X4-associated signaling in neuronal and glial cell models.
- Pharmacological Characterization: Supports evaluation of receptor inhibition, concentration-response relationships, and experimental signaling outcomes.
- Versatile Research Applications: Especially useful for studying purinergic signaling in neuroscience, immunology, inflammation, and cellular physiology.
Applications
- P2X4 Receptor Research: Investigates ATP-dependent activation and pharmacological inhibition of P2X4 purinergic receptors.
- Neuroinflammation Studies: Supports investigation of P2X4-associated inflammatory responses in microglial and other neural cell models.
- Neuropathic Pain Research: Enables studies of P2X4 receptor involvement in pain-related signaling and neuroimmune interactions.
- Microglial Signaling: Supports analysis of ATP-mediated receptor activity and downstream signaling in microglial research models.
- Calcium Mobilization Assays: Useful for measuring changes in ATP-evoked intracellular calcium responses specifically following P2X4 receptor inhibition.
- Purinergic Receptor Pharmacology: Supports characterization of P2X4 receptor activity and comparison with other purinergic signaling pathways.
- Inflammatory Signaling Research: Enables investigation of extracellular ATP responses in immune and inflammatory cell systems.
- Electrophysiology Studies: Supports evaluation of P2X4-mediated ionic currents in suitable receptor expression systems.
- Cellular Signal Transduction: Helps researchers examine downstream pathways associated with P2X4 activation and inhibition.
Storage and Handling
- Storage: Store at −20°C in a dry, tightly sealed container, protected from light and moisture, unless otherwise specified by the product documentation. Avoid prolonged exposure to heat and repeated temperature fluctuations.
- Handling: Prepare stock solutions using a compatible solvent, such as DMSO, after confirming product-specific solubility. Dilute into suitable experimental buffers or culture media while maintaining consistent solvent concentrations across treatment and control groups. Optimize working concentrations and incubation conditions according to the receptor expression system and assay design. Because antagonist potency and selectivity may vary by species and experimental conditions, use appropriate receptor-specific controls when interpreting results.
5-BDBD (P2X4 Receptor Antagonist) provides a pharmacological tool for investigating ATP-gated P2X4 receptor signaling and associated cellular responses and specifically supports neuroscience, neuroinflammation, neuropathic pain, calcium signaling, electrophysiology, and purinergic receptor research.
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