The snapping of magnetic fields occurred first, followed by a burst of auroras. Surprisingly, the disruption in the charged particle current occurred after the aurora. Proponents of that hypothesis had thought that the magnetic snapping caused the change in electric current and that, in turn, led to the auroras.
The trigger of the Northern Lights, also known as the Aurora Borealis, is the interaction of charged particles from the sun with the Earth's magnetic field and atmosphere.
Scientists use a variety of tools and techniques to study the trigger of the Northern Lights, including satellites, ground-based instruments, and computer models.
Understanding the trigger of the Northern Lights is important because it helps us understand the Earth's magnetic field and how it protects us from harmful solar activity. It also allows us to make predictions about when and where the Northern Lights will occur.
While scientists have a good understanding of the trigger of the Northern Lights, predicting the exact occurrence of the Northern Lights is still a challenge. However, advancements in technology and research have led to more accurate predictions.
Yes, there are other natural phenomena similar to the Northern Lights, such as the Southern Lights (Aurora Australis) and the polar lights on other planets in our solar system. These phenomena are all caused by interactions between solar particles and magnetic fields.