Quantum Entanglement and Magnetic Polarity

The phenomenon of magnetism has long been a subject of fascination and study, particularly the behavior of magnetic poles when a magnet is divided. When a magnet is broken into two pieces, each fragment becomes an independent magnet with its own north and south poles. This observation raises intriguing questions about the underlying mechanisms that govern the reconfiguration of magnetic fields. This thesis explores the hypothesis that quantum entanglement plays a critical role in the instantaneous reconfiguration of polarity in broken magnets, even when the fragments are separated at the speed of light and placed at an infinite distance from each other. By examining the principles of quantum mechanics and magnetic field theory, this research aims to provide a theoreti- cal framework for understanding how entangled magnetic systems retain their intrinsic connection, regardless of spatial separation.