synaptic cleft, where neurotransmitters are released by the synaptic terminal and bind to receptors on the muscle fiber to trigger a muscle contraction.
The axon terminal is located at the end of a motor neuron, where it meets the muscle fiber at the neuromuscular junction (NMJ). This is where communication between the neuron and muscle fiber occurs, allowing for the transmission of signals that trigger muscle contractions.
The space between the synaptic end bulbs of an axon terminal and the sarcolemma is called the synaptic cleft. It is a small gap that neurotransmitters traverse to transmit signals between neurons and muscle cells. The neurotransmitters released from the axon terminal bind to receptors on the sarcolemma, triggering muscle contraction.
Neuromuscular junction.
In skeletal muscle, a triad is formed when a T-Tubule is flanked on either side by the calcium containing Terminal Cisternae of the Sarcoplasmic Reticulum, at the level of the Z-line. The intimate association of these three membranous sturctures (Terminal Cisternae---T-Tubule---Terminal Cisternae) for a Triad. This differs from a diad (or Dyad), in cardiac muscle where the T-Tubule is only intimately associated with ONE Terminal Cisternae.
The substance that is released at an axonal ending to propagate the nerve impulse to the next nerve or muscle is called
To "connect" two neurons, (or a neuron and a muscle cell), by providing a space between an axon terminal of one neuron and a dendrite of another neuron (or a muscle cell), so neurotransmitters that are released by an axon terminal can diffuse across that space to reach the dendrite (or muscle cell) and either initiate the possibility of the second neuron to fire or cause a muscle cell to contract.
The gap between the axon terminal and muscle cell is called the synaptic cleft. It is defined as the small gap, measured in nanometers, between an axon terminal and any of the cell membranes in the immediate vicinity.
The phase between the stimulus of a muscle and the shortening of the muscle is called the latent phase or latent period. During this phase, the muscle is receiving the signal to contract, but actual muscle shortening has not yet occurred. This period is important for the muscle fibers to prepare and generate enough force for contraction.
The neuron releases its neurotransmitter into the synaptic cleft at the neuromuscular junction, which is the gap between the neuron terminal and the muscle cell. This neurotransmitter then binds to receptors on the muscle cell membrane, triggering muscle contraction.
in the terminal cisternae
Axonal recruitment refers to the process by which an increasing number of axons in a nerve are activated to generate a stronger neural signal or action potential. Each axon is capable of generating an action potential, which is an electrical signal that travels along the length of the axon. However, at low levels of stimulation, only a subset of axons in a nerve will generate action potentials. As the level of stimulation increases, more axons will begin to generate action potentials, leading to increased neural activity. Axonal recruitment is an important mechanism for regulating the strength and sensitivity of neural signals. It allows the nervous system to modulate the strength of its responses to different levels of stimuli, and can be observed in a variety of physiological processes, including muscle contraction and sensory processing. Check out this site;ʰᵗᵗᵖˢ://ʷʷʷ.ᵈⁱᵍⁱˢᵗᵒʳᵉ²⁴.ᶜᵒᵐ/ʳᵉᵈⁱʳ/³⁹⁴⁶⁵⁹/ʲᵃʸʰᵒʳᵍ/