The magnetic field is stronger at the poles.
Charged particles from outer space are more likely to strike Earth at the poles due to the Earth's magnetic field shaping their paths. The magnetic field lines converge at the magnetic poles, directing charged particles towards these regions. This results in a higher concentration of cosmic ray impacts at the poles compared to the equator.
the molten iron core
At the equator, the angle of dip of a magnetic needle is close to zero because the magnetic field lines are nearly parallel to the Earth's surface. This means that the magnetic needle aligns horizontally rather than pointing downwards towards the ground.
Earth has a magnetic field weaker than Jupiter but stronger than Venus.Jupiter 4.2 gauss at the equator to 10--14 gauss at the polesEarth less than 30 microteslas (0.3 gauss) at the equator to over 60 microteslas (0.6 gauss) around the polesVenus does not have a magnetic field.
The small bar magnet has a stronger magnetic field, at least at short distances.
The Earth's magnetic field is stronger near the equator because the magnetic field lines are more compressed at lower latitudes due to the shape of the field. Additionally, the core of the Earth, where the magnetic field originates, is tilted relative to the axis of rotation, causing the field to bulge towards the equator. This results in a stronger magnetic field near the equator.
The magnetic field of Earth is stronger at the magnetic poles, which are closer to the bottom of the Earth near Antarctica, than at the equator or the middle of the Earth such as in Mexico. This is because the magnetic field lines converge towards the poles.
The weakest magnetic field is considered to be the Earth's magnetic field at the magnetic equator, which has a strength of about 25 to 65 microteslas. In comparison, the magnetic field of a refrigerator magnet is typically around 100 times stronger.
The vertical component of Earth's magnetic field is zero at the magnetic equator, where the magnetic field lines are horizontal. At the magnetic equator, the magnetic field lines run parallel to the Earth's surface, resulting in a zero vertical component.
If by "middle", you mean the center of the sphere (inside the core), then yes the magnetic density will be high, there, just as it is inside of a magnet. If you mean at the equator, then that is not the strongest place. If by "bottom", you mean the South Pole, the magnetic field density will be stronger at the poles (north and south) than any other place on the surface of the Earth.
No, plants do not generate magnetic fields stronger than the Earth. The Earth's magnetic field is much stronger than any magnetic field produced by plants.
Earth's magnetic field strength at the equator is about 30 microtesla.
The strength of Earth's magnetic field is strongest at the magnetic poles, which are not necessarily aligned with the geographic poles. The magnetic field is weakest at the magnetic equator.
Charged particles from outer space are more likely to strike Earth at the poles due to the Earth's magnetic field shaping their paths. The magnetic field lines converge at the magnetic poles, directing charged particles towards these regions. This results in a higher concentration of cosmic ray impacts at the poles compared to the equator.
near both magnetic poles
No, the moon does not have a global magnetic field like Earth. Some localized magnetic fields have been detected on the moon's surface, but they are much weaker than Earth's magnetic field.
The auroras that are experienced near the polar regions occur because of the strength of the earth's magnetic field. The magnetic field is not very strong at the equator.