It would depend on the type of particle.
the magnetic field
Earth itself is largely protected from the solar wind by its magnetic field, which deflects most of the charged particles; however some of the charged particles are trapped in the Van Allen radiation belt. XxBaby Dee
A compass does not use energy to function, as it relies on Earth's magnetic field for its operation. The needle in a compass aligns itself with the Earth's magnetic field, pointing towards the magnetic North Pole.
As particles photons travel in a straight line unless they are diverted by reflection, refraction, or a magnetic or gravitational field. Note that when it comes to gravity it can also be represented that the light continues in a straight line - but the space it travels through is curved so its path appears curved to the outside observer.
accorsing to the earths magnetic field
Gamma radiation is not affected by a magnetic field because it is composed of photons, which are uncharged particles. The magnetic field influences charged particles, such as electrons or protons, by causing them to curve, but it has no effect on photons.
The moon does not have the kind of magnetic field that the Earth does, and therefore it does not have the same kind of interactions with charged particles from the sun.
the magnetic field
Changing the amount of magnetic field (known as "flux") through a conductor exerts a force on charged particles (electrons in the wire). A change in magnetic field strength in a region of space induces an electric field which circles the magnetic field lines, surprisingly whether or not there is a conductor there or not. It turns out that magnetism and electricity are inherently linked, they are kind of manifestations of the same thing. If "something" has the property of electric charge, it creates an electric field. If that something moves, it creates a magnetic field.
Earth itself is largely protected from the solar wind by its magnetic field, which deflects most of the charged particles; however some of the charged particles are trapped in the Van Allen radiation belt. XxBaby Dee
To have an active magnetic field you must have a reasonably fast rotation speed, and a molten metal core. The earths moon has neither of these, so the answer is No, the moon doesn't have a magnetic field of any kind.
A compass does not use energy to function, as it relies on Earth's magnetic field for its operation. The needle in a compass aligns itself with the Earth's magnetic field, pointing towards the magnetic North Pole.
A solenoid magnet, which is a long coil of wire wrapped around a ferromagnetic core, has a similar magnetic field to that of a bar magnet. This is because the magnetic field created by the current flowing through the wire generates a magnetic field similar to that of a bar magnet.
A long coil of wire generates a magnetic field similar to that of a bar magnet, with field lines running parallel to the coil's axis. This type of magnetic field is known as a solenoidal field and is strongest inside the coil, as the magnetic field lines are tightly packed together.
One type of evidence is the observation of magnetic forces acting on magnetic materials such as iron filings aligning along the field lines. Additionally, experiments with compass needles demonstrate their orientation towards the Earth's magnetic field. Magnetic field lines can also be visualized using techniques like iron filings or magnetic field sensors.
Magnetic field
You cannot classify the phase of matter of light. The particles of light are much different than the particles of ordinary matter. At a large level, if we take the measurements, the light is a transverse wave carried by disturbances in an electric field and a magnetic field, each in perpendicular oscillations to each other, and each perpendicular to the travel of the wave. At the smallest level possible, there is a smallest piece of which you could call light. These are called photons. They are also the force carrier particles of electric and magnetic forces. These particles have zero rest mass, but they have an effective mass when in motion at the speed of light