Organic spintronics has been attracting the interest of the scientific community because of its
potential to complement the electronics industry by combining the spin and charge degrees …

The term “carbon-based spintronics” mostly refers to the spin applications in carbon
materials such as graphene, fullerene, carbon nitride, and carbon nanotubes. Carbon-based …

Interface engineering and design is paramount in the optimization of a multilayer device
stack. This stands true for multi-dimensional (2D/3D) perovskite-based solar cells, in which …

Understanding spinterfaces between magnetic metals and organic semiconductors is
essential to unlock the great potentials that organic materials host for spintronic applications …

The injection of pure spin current into the non‐magnetic layer plays a crucial role in
transmitting, processing, and storing data information in the realm of spintronics. To …

The observation of spin-dependent transmission of electrons through chiral molecules has
led to the discovery of chiral-induced spin selectivity (CISS). The remarkably high efficiency …

Spin currents have long been suggested as a potential solution to addressing circuit
miniaturization challenges in the semiconductor industry. While many semiconducting …

Coupling of spin and charge currents to structural chirality in non-magnetic materials, known
as chirality-induced spin selectivity, is promising for application in spintronic devices at room …

The chirality-induced spin selectivity (CISS) effect allows thin-film layers of chiral conjugated
molecules to function as spin filters at ambient temperature. Through solvent-modulated …

Organic spintronics is an emerging research field that offers numerous fundamental physics
and has shown potential in future spintronic applications. The spin-polarized hybridized …