Bipolar neurons present a good model for how ribbon synapses function.

The role of the secretions are to trap and dissolve odiferous substances for the bipolar neurons.

Bipolar neurons are spindle-shaped, with a dendrite at one end and an axon's at the other.

They are myelinated, bipolar neurons.

The vestibular ganglion houses the cell bodies of the bipolar neurons and extends processes to five sensory organs.

It is uniquely expressed in cerebellar Purkinje cells and in retinal bipolar neurons.

The olfactory cells of the epithelium are bipolar neurons which congregate to form the olfactory nerve.

These bipolar neurons are the first neurons in the auditory system to fire an action potential, and supply all of the brain's auditory input.

These receptors are bipolar neurons that project to the glomerular layer of the olfactory bulb, traveling through the cribriform plate.

Unipolar neurons that begin as bipolar neurons during development are known as pseudounipolar neurons.

The axons of the bipolar neurons form the olfactory nerve (cranial nerve I) which enters the brain through the cribiform plate.

Olfactory mucosal cell types include bipolar neurons, supporting (sustentacular) cells, basal cells, and Bowman's glands.

The vestibulocochlear nerve consists mostly of bipolar neurons and splits into two large divisions: the cochlear nerve and the vestibular nerve.

Finally, EAAT5 is only found in the retina where it is principally localised to photoreceptors and bipolar neurons in the retina.

The human inner ear develops during week 4 of embryonic development from the auditory placode, a thickening of the ectoderm which gives rise to the bipolar neurons of the cochlear and vestibular ganglions.

In vertebrates, ORNs are bipolar neurons with dendrites facing the inferior space of the nasal cavity and an axon that passes through the cribiform plate then travels along the olfactory nerve to the olfactory bulb.