  Similar to electromagnetism, described by the Maxwell equations, the physics
of magnetoelectric (ME) phenomena deals with the fundamental problem of the
relationship between electric and magnetic fields. Despite a formal resemblance
between the two notions, they concern effects of different natures. In general,
ME coupling effects manifest in numerous macroscopic phenomena in solids with
space and time symmetry breakings. Recently it was shown that the near fields
in the proximity of a small ferrite particle with magnetic dipolar mode (MDM)
oscillations have the space and time symmetry breakings and topological
properties of these fields are different from topological properties of the
free space electromagnetic (EM) fields. Such MDM originated fields, called
magnetoelectric (ME) fields, carry both spin and orbital angular momentums.
They are characterized by power flow vortices and non zero helicity. In this
paper, we report on observation of the topological ME effects in far field
microwave radiation based on a small microwave antenna with a MDM ferrite
resonator. We show that the microwave far-field radiation can be manifested
with a torsion structure where an angle between the electric and magnetic field
vectors varies. We discuss the question on observation of the regions of
localized ME energy in far field microwave radiation.
