  A coupled dielectric-metal metasurface (CDMM) consisting of amorphous silicon
(a-$\textit{Si}$) rings and subwavelength holes in $\textit{Au}$ layer
separated by a $\textit{SiO}_{2}$ layer is presented. The design parameters of
the CDMM is numerically optimized to have a polarization independent peak
transmittance of 0.55 at 1540 nm with a Full Width at Half Maximum ($FWHM$) of
10 nm. The filter also has a 100 nm quite zone with $\sim 10^{-2}$
transmittance. A radiating two-oscillator model reveals the fundamental
resonances in the filter which interfere to produce the electromagnetically
induced transparency (EIT) like effect. Multipole expansion of the currents in
the structure validates the fundamental resonances predicted by the
two-oscillator model. The presented CDMM filter is robust to artifacts in
device fabrication and has performances comparable to a conventional
Fabry-P\'{e}rot filter. However, it is easier to be integrated in image sensors
as the transmittance peak can be tuned by only changing the periodicity
resulting in a planar structure with a fixed height.
