Spintronics relies on the transport of spins, the intrinsic angular momentum of electrons, as
an alternative to the transport of electron charge as in conventional electronics. The long …

Spin dynamics in antiferromagnets has much shorter timescales than in ferromagnets,
offering attractive properties for potential applications in ultrafast devices,–. However, spin …

The discovery of new materials that efficiently transmit spin currents has been important for
spintronics and material science. The electric insulator Gd3Ga5O12 (GGG), a standard …

First-principles calculations show that electric fields applied to ferromagnets generate spin
currents flowing perpendicularly to the electric field. Reduced symmetry in these …

Spin-transfer torque and spin Hall effects combined with their reciprocal phenomena, spin
pumping and inverse spin Hall effects (ISHEs), enable the reading and control of magnetic …

We observe highly efficient dynamic spin injection from Y 3 Fe 5 O 12 (YIG) into NiO, an
antiferromagnetic (AF) insulator, via strong coupling, and robust spin propagation in NiO up …

The energy bandgap of an insulator is large enough to prevent electron excitation and
electrical conduction. But in addition to charge, an electron also has spin, and the collective …

Using Y 3 Fe 5 O 12 (YIG) thin films grown by our sputtering technique, we study dynamic
spin transport in nonmagnetic, ferromagnetic, and antiferromagnetic (AF) materials by …

Control of magnetism on the atomic scale is becoming essential as data storage devices are
miniaturized. We show that antiferromagnetic nanostructures, composed of just a few Fe …

Ferroelectric and ferromagnetic materials exhibit long-range order of atomic-scale electric or
magnetic dipoles that can be switched by applying an appropriate electric or magnetic field …