The central nervous system (CNS), specifically the spinal cord and brain, acts as an interpreter for afferent and efferent neurons. Afferent neurons carry sensory information from the body to the CNS, while efferent neurons transmit motor commands from the CNS to muscles and glands. The CNS processes the incoming sensory data and coordinates appropriate responses, effectively integrating sensory input with motor output. This communication is crucial for reflexes and voluntary movements.
A motor neuron is responsible for transmitting signals from the central nervous system to muscles or glands to stimulate movement or secretion. A relay neuron, also known as an interneuron, acts as a bridge between sensory and motor neurons, facilitating communication between them within the central nervous system. Essentially, motor neurons are involved in output or response, while relay neurons help process and integrate information.
Interneurons act as interpreters for the other two types of neurons: sensory neurons, which receive stimuli from the environment, and motor neurons, which carry signals to muscles and glands. Interneurons process and integrate the information received from sensory neurons, facilitating communication between them and motor neurons to coordinate appropriate responses. They play a crucial role in reflexes and complex neural circuits within the central nervous system.
The optic nerve (cranial nerve II) carries sensory information about light intensity to the brain as part of the afferent pathway in the pupillary reflex.
The substance that is produced and released by neurons in the brain is a hormone called dopamine. It acts as a neurotransmitter that sends signals between nerve cells.
Connector neurons are specialized bipolar or multipolar neurons of the central nervous system. Connector neurons are also known as interneurons and connect sensory neurons.
The interneuron acts as a connector between afferent and efferent neurons in the central nervous system. It integrates and processes incoming sensory information before transmitting signals to the efferent neuron to produce a response.
Interneurons
A motor neuron is responsible for transmitting signals from the central nervous system to muscles or glands to stimulate movement or secretion. A relay neuron, also known as an interneuron, acts as a bridge between sensory and motor neurons, facilitating communication between them within the central nervous system. Essentially, motor neurons are involved in output or response, while relay neurons help process and integrate information.
Interneurons act as interpreters for the other two types of neurons: sensory neurons, which receive stimuli from the environment, and motor neurons, which carry signals to muscles and glands. Interneurons process and integrate the information received from sensory neurons, facilitating communication between them and motor neurons to coordinate appropriate responses. They play a crucial role in reflexes and complex neural circuits within the central nervous system.
A htm file is interpreted, not compiled. A browser acts as the interpreter.
In the presence of renal artery stenosis, the resistance in the afferent arteriole is increased. As compensation, Angiotensin II acts to constrict the efferent arteriole in order to achieve adequate profusion of the glomerulus. ACE inhibitors block the conversion of angiotensin I into angiotensin II. Without its vasoconstrictive effect, the efferent arteriole becomes dilated. This leads to a drop in GFR and may lead to renal failure.
Thalamus
A nerve cell found entirely within the central nervous system that acts as a link between sensory neurons and motor neurons.
carries an amino acid to its correct codon
The optic nerve (cranial nerve II) carries sensory information about light intensity to the brain as part of the afferent pathway in the pupillary reflex.
The substance that is produced and released by neurons in the brain is a hormone called dopamine. It acts as a neurotransmitter that sends signals between nerve cells.
Nicotine is a Sympathetic drug when it acts on synapse it has its Sympathomimetic action and it activates the neurons.