The phrase "a moving charged" is not correct in written English as it is incomplete and lacks clarity.
It could be used in a context discussing physics or electromagnetism, but it needs additional words to convey a complete thought.
Example: "A moving charged particle creates a magnetic field around it."
Alternatives: "a moving charge" or "a charged particle in motion".
The actual deflection of a moving charged particle in a magnetic field is determined by its charge, mass, and velocity.
The cross product is frequently used to obtain a "normal" (a line perpendicular) to a surface at some point, and it occurs in the calculation of torque and the magnetic force on a moving charged particle.
Indeed, the English physicist J.J. Thomson showed in 1881 that the energy stored in the fields around a moving charged particle varies as the square of the velocity as if there were extra mass carried with the electric field around the particle.
Many science museums have a big cloud chamber: a dark box with what looks like a fine mist falling, with white vapor trails that appear randomly when a rapidly moving charged particle like a muon or proton (cosmic ray) passes through the fog.
The magnetic force on a moving charge reveals the sign of the charge carriers in a conductor.
The electric field is then computed for each secondary particle during its travel in the atmosphere using the well-known equation of a moving charge which undergoes an acceleration.
The electromagnetic field of an arbitrary moving charged particle is expressed by the Liénard Wiechert potentials, which are valid even when the particle's speed is close to that of light (relativistic).
A magnetic field B imparts a force on moving charged particles.
That magnetic field would exert a force, known as a Lorentz force, on moving charged particles, which in turn would attract electrons toward a metal receiver situated on the wire.
For instance, the core of the membrane is extremely hydrophobic giving rise to a desolvation penalty for moving charged molecules into this region.
The Cerenkov emission depends on macroscopic properties of the medium through the index of refraction, while Bremsstrahlung emission is the result of an interaction of the moving charged particle with the Coulomb field of the nucleus of the medium.
