  The realization of next-generation quantum computing devices is hindered by
the formidable challenge of detecting and manipulating Majorana Fermion in
nanomaterials. In this study, we explore a new approach of detecting Majorana
Fermion in a metallated carbyne nanowire array. Through comprehensive
optimizations, we successfully achieved a local magnetic moment exceeding
3{\mu}B, with the average magnetic moment of the entire metallated carbyne
surpassing 1{\mu}B. Surprisingly, in the absence of spin-orbit coupling, the
ferromagnetic Ru metallated carbyne, when coupled with a superconducting Ru
substrate, is already able to demonstrate the symmetric opening of a Dirac gap
at the gamma point. We discovered that the kink structure of the metallated
carbyne plays a crucial role in modulating its topological properties.
Moreover, we identified the origin of magnetic hybridization which is
intricately linked to the distinctive features found in one-dimensional carbon
structures. Our findings not only uncover the unconventional ferromagnetism
observed in metallated carbyne but also present an exciting opportunity to
realize carbon-based materials capable of hosting Majorana Zero Modes (MZM).
This discovery has the potential to further stabilize MZM by decoupling the
orbital perturbation from the MZM itself.
