The binding of a neurotransmitter to a dendrite will cause one these three things to happen:
It all depends on the neurotransmitter. Neurotransmitter are means by which neurons communicate with one another. There are more than 30 compounds known to be neurotransmitters, and dozens of others are thought to be so.
According to Biologists, the hyper polarization of a dendrite by a neurotransmitter is known as an inhibitory postsynaptic potential (IPSP).
Synaptic of dendrite
The neurotransmitter is released from the axon terminal.
Binding of the neurotransmitter causes chemically gated sodium channels to open in the motor end plate. Further down the line, this would cause muscle contraction through the release of Ca2+ from the SR.
neural plasticity - neurons can alter their: - dendrite-to-dendrite connections - axon-to-dendrite connections - axon-to-axon connections - neurotransmitter receptor density This allows for the brain to change the way that different neural networks interconnect, and it also allows regulation and modulation of neural signals so that the "weights" between neurons are changed to remodulate those signals. Diseases, such as Alzheimer's disease, ALS, and multiple sclerosis, can also result in demyelination, which results in signal loss along axons.
These instructions are received in the form of an impulse stimulation of a particular protein channel on the dendrite by a neurotransmitter termed acetycholine (ACh).
A synapse is the connection between two neurons. It consists of the synaptic cleft (the physical gap between one neuron's axon and the other's dendrite). Neurotransmitters cross the gap from the axon to the dendrite and affect whether the next neuron fires.
Anticholinergics are a class of medications that inhibit parasympathetic nerve impulses by selectively blocking the binding of the neurotransmitter acetylcholine to its receptor in nerve cells.
Multiple receptor subtypes allow for more "fine-tuned" neuromodulation of a given "signal" in a neural network. Each receptor subtype typically has a different binding affinity for the given neurotransmitter. Therefore, the neurotransmitter may bind more strongly or more weakly to one subtype over another. This is most likely an effect of genetic variation, as the genes coding for the protein(s) present in the receptor slightly vary from subtype to subtype, yet still allow for binding by the neurotransmitter ligand.
dopamine
Cell body.Impulses a received in the dendrite, go through the cell body and out to the axon, where they are transmitted to the next dendrite. Easy way to remember it, it's the alphabet backwards - Dendrite, Cell Body, Axon
the longest dendrite is I don't know this /;[