  It is shown here that a Kagom\'e magnet, with Heisenberg and
Dzyaloshinskii-Moriya interactions causes non trivial topological and chiral
magnetic properties. Chirality---that is, left or right handedness---is a very
important concept in a broad range of scientific areas, and particularly, in
condensed matter physics. Inversion symmetry breaking relates chirality with
skyrmions, that are protected field configurations with particle-like and
topological properties. Here, the reported numerical simulations and
theoretical considerations reveal that the magnetic excitations of the Kagom\'e
magnet can both be of regular bulk magnon character, as well as, having a
non-trivial topological nature. We also find that under special circumstances,
skyrmions emerge as excitations, having stability even at room temperature.
Chiral magnonic edge states of a Kagom\'e magnet offer, in addition, a
promising way to create, control and manipulate skyrmions. This has potential
for applications in spintronics, magnonics and skyrmionics, i.e., for
information storage or as logic devices based on the transportation and control
of these particles. Collisions between these particle-like excitations are
found to be elastic in the skyrmion-skyrmion channel, albeit without
mass-conservation for an individual skyrmion. Skyrmion-antiskyrmion collisions
are found to be more complex, where annihilation and creation of these objects
have a distinct non-local nature.
