The lines running between the two poles are called meridians. These meridians are used in geographic coordinate systems to measure longitude and determine the angular distance east or west of the Prime Meridian (0 degrees longitude).
Bipolar neurons have only one axon and one dendrite with the soma between them. There are probably very few, if any, neurons that contain only a single axon and dendrite. However, the concept is useful because some neurons behave as if they only had a single axon and dendrite. These neurons, called bipolar neurons because their cell body sits in between the axon and dendrite (giving the neuron two "poles"), are abundant in the nervous system. One very important type of bipolar neuron occurs in the retina, and is responsible for how we process light at an early level.
Poop poo
A neuron typically has two main poles: the axon and the dendrites. Dendrites receive incoming signals from other neurons, while the axon transmits electrical impulses away from the cell body to communicate with other neurons or target cells. This bipolar structure allows for the efficient processing and transmission of information within the nervous system.
The latitude can be thought of as the distance from the equator. 0 degrees latitude is the equator, which is typically warmer than locations closer than the poles. As you move away from the Equator and towards the North or South poles, the weather tends to be colder. In contrast, the region between the poles and the equator often has a greater temperature range variation.
The contrast between the two poles of a neuron is called polarization. Just like a battery has positive and negative poles that create an electrical potential difference, a neuron's polarization refers to the difference in electric charge between its dendrites and axon. This difference in charge allows for the transmission of electrical impulses along the neuron.
The contrast between two poles of a neuron is typically referred to as the "polarization" of the neuron. This involves the difference in charge between the inside and outside of the neuron's membrane, which is crucial for the generation and propagation of action potentials. The two poles are commonly described as the axon (which conducts impulses away from the cell body) and the dendrites (which receive signals). This polarization is essential for the neuron's ability to transmit electrical signals efficiently.
The contrast between two poles of a neuron is called polarity. Neurons have distinct regions known as dendrites (receiving end) and axon (transmitting end) that exhibit different functions due to their specialized structure and organization. This polarity allows for the transmission of electrical signals in a specific direction within the neuron.
The lines joining the two poles are longitudes.
It is called a tightrope.
The horizon is the great circle on the sky midway between the celestial poles.
The term is called "magnetic attraction" or "magnetic repulsion." It refers to the force between the poles of magnets where like poles repel each other and opposite poles attract each other.
The lines running between the two poles are called meridians. These meridians are used in geographic coordinate systems to measure longitude and determine the angular distance east or west of the Prime Meridian (0 degrees longitude).
magnetic force
The poles that must be navigated by the canoer are called gates.
The force between like magnetic poles is determined by the strength of the magnetic poles and the distance between them. The force decreases as the distance between the poles increases.
Bipolar neurons have only one axon and one dendrite with the soma between them. There are probably very few, if any, neurons that contain only a single axon and dendrite. However, the concept is useful because some neurons behave as if they only had a single axon and dendrite. These neurons, called bipolar neurons because their cell body sits in between the axon and dendrite (giving the neuron two "poles"), are abundant in the nervous system. One very important type of bipolar neuron occurs in the retina, and is responsible for how we process light at an early level.