  Interference is the cornerstone of Huygens source design for reshaping and
controlling scattering patterns. The conventional underpinning principle, such
as for the Kerker effect, is the interference of electric and magnetic dipole
and quadrupole modes. Here a route to realize transverse Kerker scattering
through employing only the interference between the electric dipole and
magnetic quadrupole is demonstrated. The proposed approach is numerically
validated in an ultra-thin Silicon square nanoplate metasurface, and is further
verified by multipole decomposition. The metasurface is shown to be invisible
fornear-infrared wavelengths and with an enhanced electric field in the region
of the nanoparticle. Additionally, we develop further the proposed approach
with practical implementation for invisibility applications by exploring the
effects of the aspect ratio of the square plate nanoresonator, the
inter-particle separation, and the presence of a substrate. Further it is
demonstrated that invisibility can be observed at oblique incidence up to
60{\deg} for a transverse magnetic plane wave. The results are relevant for
Huygens metasurface design for perfect reflectors, invisibility and devices for
harmonic generation manipulation.
