  The pursuit of non-radiating sources and radiation-less motion for
accelerated charged particles has captivated physicists for generations.
Non-radiating sources represent intricate current charge configurations that do
not emit radiation beyond their source domain. In this study, we investigate a
single non-radiating source, comprising a low-index dielectric disk excited by
a split ring resonator. Employing analytical and numerical methods, we
demonstrate that this configuration supports an anapole state, exhibiting
minimal or no radiation, effectively representing a non-radiating source. The
radiation suppression is accomplished through the destructive interference of
electric dipoles excited on the metallic and dielectric components of the
proposed prototype. Transforming the design into a cost-effective device
capable of suppressing radiation, we achieve impressive numerical and
experimental agreement, affirming the formation of the anapole state using the
lowest order multi-poles. Moreover, the devised anapole device is remarkably
compact, constructed from a low-index dielectric, and employs readily available
components. As a versatile platform, the proposed device can spearhead anapole
research for diverse applications, including sensing, wireless charging, RFID
tags, and other non-linear applications.
