  The interaction of non-monochromatic radiation with two types of arrays
comprising both plasmonic and dielectric nanoparticles has been studied in
detail. We have shown that dielectric nanoparticle arrays provide a complete
selective reflection of an incident plane wave within a narrow spectral line of
collective lattice resonance with a Q-factor of $10^3$ or larger, whereas
plasmonic refractory TiN and chemically stable Au nanoparticle arrays
demonstrated high-Q resonances with moderate reflectivity. The spectral
position of these resonance lines is determined by the lattice period, as well
as the size, shape and material composition of the particles. Moreover, the
arrays, with fixed dimensional parameters make it possible to fine-tune the
position of a selected resonant spectral line by tilting the array relative to
the direction of the incident radiation. These effects provide possibilities
for engineering of novel selective tunable optical high-Q filters in a wide
range of wavelengths: from visible to middle IR. Several highly refractive
dielectric nanoparticle materials with low absorption are proposed for various
spectral ranges, such as LiNbO$_3$, TiO$_2$, GaAs, Si, and Ge.
