since Cl- ions are more in the ECF, I think there exist concentration gradient for it, and it will have the tendency to move inside the cell just like Na+, please explain why you said there is no gradient for Cl-
Hawa Mohamed Cl- is quite deffirent in most cells, sometimes the Cl- gradient is the same as the cell's gradient, so no net transport... however most cells can use GABA R proteins to have an IPSP trough Cl- movement
Great informative video, thank you so much. You might want to reconsider limiting the IPSPs to just ionotropic receptors. While IPSPs are more likely to be mediated by ionotropic receptors, some IPSPs are mediated by metabotropic receptors... I think they cause the closure of Ca++ channels...
Very good explanation. I found the flowchart was really helpful, and the clear voice + subtitles.
Great explanation, she sounds like the main character from the movie Clueless!
Great concise presentation,many thanks!
Is 12:14 supposed to say EPSP?
I think so
Very helpful presentation , Thank you so much ♥️🙏🏻
Fantastic! Thank you so much for this!
since Cl- ions are more in the ECF, I think there exist concentration gradient for it, and it will have the tendency to move inside the cell just like Na+, please explain why you said there is no gradient for Cl-
Hawa Mohamed Cl- is quite deffirent in most cells, sometimes the Cl- gradient is the same as the cell's gradient, so no net transport... however most cells can use GABA R proteins to have an IPSP trough Cl- movement
yes i got confused
Ma'am you are way too good!!!
thank you so much it helped so much xxxx
Can this happen with other ions as well? I mean, Carbonate, Phosphate, and such ions with negative charge? Is this the case with Iodide as well? (I-)
Great informative video, thank you so much. You might want to reconsider limiting the IPSPs to just ionotropic receptors. While IPSPs are more likely to be mediated by ionotropic receptors, some IPSPs are mediated by metabotropic receptors... I think they cause the closure of Ca++ channels...
3:00