Beschreibung
Calcium flux dynamics through TRPV channels upon phytocannabinoid stimulation. Initial channel activation followed by desensitization could reduce the sustained calcium influx that drives seizure propagation.
Figure 99
DiagramSource Paper
Receptors and Channels Possibly Mediating the Effects of Phytocannabinoids on Seizures and Epilepsy.Cite This Figure
![Figure 99: Calcium flux dynamics through TRPV channels upon phytocannabinoid stimulation. Initial channel activation followed by desensitization could reduce the sustained calcium influx that drives seizure propagation.]() > Source: Lara Senn et al. "Receptors and Channels Possibly Mediating the Effects of Phytocannabinoids on Se." *Pharmaceuticals (Basel, Switzerland)*, 2020. PMID: [32751761](https://pubmed.ncbi.nlm.nih.gov/32751761/)
<figure> <img src="" alt="Calcium flux dynamics through TRPV channels upon phytocannabinoid stimulation. Initial channel activation followed by desensitization could reduce the sustained calcium influx that drives seizure propagation." /> <figcaption>Figure 99. Calcium flux dynamics through TRPV channels upon phytocannabinoid stimulation. Initial channel activation followed by desensitization could reduce the sustained calcium influx that drives seizure propagation.<br> Source: Lara Senn et al. "Receptors and Channels Possibly Mediating the Effects of Phytocannabinoids on Se." <em>Pharmaceuticals (Basel, Switzerland)</em>, 2020. PMID: <a href="https://pubmed.ncbi.nlm.nih.gov/32751761/">32751761</a></figcaption> </figure>