  Recent experiments have provided evidence for chiral charge order in Kagome
superconductors (SCs). This intriguing possibility motivates us to unveil the
first pathway to engineer topological superconductivity by harnessing the
interplay of charge Chern insulators (CIs) and conventional SCs. We here
identify under which conditions a pyramidal SC/CI/SC heterostructure induces an
effective 1D spinless p-wave SC that allows pinning Majorana zero modes (MZMs)
at termination edges and domain walls. As we reveal, such a MZM track is
controlled by the phase difference of the two SCs involved and additional
magnetic fields which are required for generating Rashba-like spin-orbit
coupling. Further, we show that a SC/CI/SC/CI/SC double-pyramidal hybrid
defines a double MZM track, in which braiding occurs by varying the two
superconducting phase differences in space and adiabatically in time. Given the
geometry of the MZM racetrack, we propose to employ the time-averaged
quadrupolar differential conductance to confirm the here-termed MZM track
exchange process which is pivotal for braiding. In addition, we identify
experimental knobs which enable the fusion of MZM pairs, and the detection of
the underlying non-Abelian topological order and twofold many-body ground state
degeneracy by encoding it in a topological invariant.
