During the high periods of the sunspot cycle, several times per year; during sunspot minima, only a couple of times per year. Severe solar storms, which can damage electronic equipment and satellites, are fortunately very rare.
basiclly
A solar storm, which involves the release of charged particles from the sun, interacts with the Earth's magnetic field and atmosphere. When these particles collide with gas molecules in the Earth's atmosphere, they excite these molecules, causing them to emit light. This process creates the beautiful displays of color known as the aurora borealis (or northern lights) in the polar regions. The intensity and patterns of the auroras can vary depending on the storm's strength and the Earth's magnetic field conditions.
you can't get to the earth's core it's to deep, you would melt from the lava, and if you did get to the core you would disrupt the earths magnetic field and we would be killed by a solar storm.
A geo storm, typically referring to a geomagnetic storm caused by solar activity, does not have solenoids in the traditional sense. However, in the context of Earth’s magnetic field, solenoids can be used to model magnetic fields or to study the effects of geomagnetic storms in experimental setups. The storms themselves are more related to interactions between solar wind and Earth’s magnetosphere rather than any physical solenoids.
When the CMEs impact the Earth's magnetosphere, a storm sudden commencement or sudden impulse (SSC or SI), a sudden increase in the magnetic field strength detected at the surface, almost instantaneously occurs.
When particles from the solar wind collide with Earth's atmosphere, they excite gas molecules, leading to the emission of light and the formation of auroras, such as the Northern and Southern Lights. These interactions can also disturb Earth's magnetic field, resulting in magnetic storms that can affect satellite operations, power grids, and communication systems. The intensity and visibility of auroras depend on the solar wind's strength and the orientation of the magnetic field. Overall, these phenomena highlight the dynamic relationship between the Sun and Earth’s magnetic environment.
Nova - 1974 Magnetic Storm 31-7 was released on: USA: 18 November 2003
There are no magnetic storms ON the Earth. What can happen is that if a major solar flare or coronal mass ejection strikes the Earth's magnetic field, it can cause an electromagnetic storm in the upper atmosphere. We see these as auroras; sort of God's own neon lights in the sky.
Compass.
Solar flares
The most powerful storm on earth are tornadoes and hurricanes!
A solar storm is a disturbance in the Earth's magnetosphere caused by solar wind, while a solar flare is a sudden, intense burst of energy on the sun's surface. Solar storms can disrupt Earth's magnetic field, leading to auroras and potential damage to technology like satellites and power grids. Solar flares can also impact technology by causing radio blackouts and interference with communication systems.