  The magnetic dipole field geometry of subatomic elementary particles like the
electron differs from the classical macroscopic field imprint of a bar magnet.
It resembles more like an eight figure or else joint double quantum-dots
instead of the classical, spherical more uniform field of a bar magnet. This
actual subatomic quantum magnetic field of an electron at rest, is called
Quantum Magnet or else a Magneton. Normally, a macroscale bar magnet should
behave like a relative giant Quantum Magnet with identical magnetic dipole
field imprint since all of its individual magnetons collectively inside the
material, dipole moments are uniformly aligned forming the total net field of
the magnet. However due to Quantum Decoherence (QDE) phenomenon at the
macroscale and macroscopic magnetic field imaging sensors limitations which
cannot pickup these rapid quantum magnetization fluctuations, this field is
masked and not visible at the macroscale. By using the relative inexpensive
submicron resolution Ferrolens quantum magnetic optical sensor and method, we
can actually make this net magneton field visible on macroscale magnets. We
call this net total field herein, Quantum Field of Magnet (QFM) differentiating
it therefore from the field of the single subatomic magneton thus quantum
magnet. Additionally, the unique potential of the Ferrolens device to display
also the magnetic flux lines of this macroscopically projected giant Magenton
gives us the unique opportunity to study the individual magnetic flux lines
geometrical pattern that of a single subatomic magneton. We describe this
particular magnetic flux of the magneton observed, quantum magnetic flux.
Therefore a novel observation has been made that the QFM of the Magnet-Magneton
consists of a dipole vortex shaped magnetic flux geometrical pattern
responsible for creating the classical macroscopic N-S field of the magnet.
