  In this paper, we report on achieving hybridization effect in a Mie-based
dielectric metamolecule and provide their physically intuitive picture. The
hybridization results in the splitting of the initial overlapping resonance
dips, thus leading to two new collective resonance modes. It can be observed
via the displacement electric field distribution that the two modes behave as
the in-phase and out-of-phase oscillation of two meta-atoms, thus enhancing and
diminishing the intensity of electric field at the gap between two meta-atoms.
Moreover, since the two hybridized modes are caused by the interaction effect,
the enhancement amplitude can be adjusted by several coupling factors, like gap
distances and spot positions. Taking advantage of the two collective modes of
the dielectric metamolecule, certain locations in the metamolecule can be
applied as heating zones in microwave band and signal amplifier or shielding
zones in communication fields.
