Researchers have successfully applied a full Floquet-space formalism to model the dynamics of driven coupled electron spins in spintronics, a crucial step towards coherent control of chiral spin systems. This approach, adapted from Nuclear Magnetic Resonance (NMR) methodologies, takes into account the effects of a static magnetic field and a transverse oscillating field on the interacting spin systems. By leveraging this formalism, scientists can better understand the behavior of spin-based quantum technologies under time-periodic driving. The study demonstrates the potential of Floquet theory to enhance the control of spin systems, which is essential for advancing spintronics and related quantum technologies1. This breakthrough has significant implications for the development of innovative spin-based devices and systems, and its impact extends beyond the scientific community to the broader realm of geopolitical security, where state-aligned threat activity raises the stakes for quantum technology research.