efferent nerve

The motor nerves are efferent nerves involved in muscular control.

Thus they are synonymous with efferent nerves.

Efferent nerves take messages from the CNS to the body.

Acetylcholine is released from the efferent nerve endings.

Efferent nerves conduct signals from the central nervous system along motor neurons to their target muscles and glands.

Cardiac glycosides can reduce the ventricular rate because of the ability to activate vagal efferent nerves to the heart.

Therefore, in response to the electrical stimulations provided by the efferent nerve supply, they can alter in length, shape and stiffness.

The hair cells are unspecialized, innervated by both afferent and efferent nerve fibres, and respond only to low frequencies.

On a similar basis, nerves into the nervous system are afferent nerves and ones out are termed efferent nerves.

These nerve groups transmit efferent nerve (motor) information from the brain to muscle groups of the scalp, neck, diaphragm (anatomy), and shoulders.

The SoNS consists of efferent nerves responsible for stimulating muscle contraction, including all the non-sensory neurons connected with skeletal muscles and skin.

Then, the lower motor neuron conducts the nerve signal to the spinal root where efferent nerve fibers carry the motor signal toward the target muscle.

The autonomic connections between the enteric and central nervous systems are well known, and the vagus and sympathetic nerves carry more afferent than efferent nerve fibres.

In this case, the signal from the afferent fiber does not reach the brain, but produces the reflexive movement by direct connections with the efferent nerves in the spine.

The neuromuscular junction connects the nervous system to the muscular system via synapses between efferent nerve fibers and muscle fibers, also known as muscle cells.

Special visceral efferent (SVE) refers to efferent nerves that provide motor innervations to the muscles of branchial arches.

The detection of a stimulus by a receptor in the afferent nerve terminals (vs efferent nerve terminals) is useful to protect the body against unexpected disturbances.

This differs from the sympathetic nervous system, where synapses between pre- and post-ganglionic efferent nerves in general occur at ganglia that are farther away from the target organ.

Afferent and efferent are connected to affect and effect through their common Latin roots: afferent nerves affect the subject while efferent nerves allow the subject to effect change.

When the afferent and efferent nerves are both destroyed, as they may be by tumors of the cauda equina or filum terminale, the bladder is flaccid and distended for a while.

Variances in absorption rate, bioavailability, protein binding, receptor-subtype mechanisms, efferent nerve equations, Meldrum models, gangloid ionization, ribosome protein synthesis, Cell Cleaner interaction rates-no one person could possibly have processed it all.

The CNS receives this message and sends an appropriate response via an efferent nerve (also known as a motor neuron) to effector cells located in the same initial area that can then carry out the appropriate response.

In the nervous system, efferent nerves, otherwise known as motor or effector neurons, carry nerve impulses away from the central nervous system to effectors such as muscles or glands (and also the ciliated cells of the inner ear).

The cell bodies for muscular efferent nerves are found in the facial motor nucleus whereas the cell bodies for the parasympathetic efferent nerves are found in the superior salivatory nucleus.

GVA fibers on the superior surface follow the course of the sympathetic efferent nerves back to the CNS, while GVA fibers on the inferior portion of the bladder follow the course of the parasympathetic efferents.