ALD-formed transition metal and tantalum-rich via layers enable small MTJ connections with seamless conductivity and stronger structural integrity.
Alternating antiferromagnetic layers create a stable z-axis reference, allowing TMR sensors to detect out-of-plane magnetic field intensity changes.
Ferrimagnetic thermoelectric elements maintain anomalous Nernst conversion at zero field while resisting external magnetic interference.
Ferromagnetic oxide and metal intermediary layers boost magnetic anisotropy and block impurity diffusion to improve memory data retention.
Ionic liquid gating creates reversible magnetic racetrack mesosurfaces on curved or flexible substrates without irreversible lithography steps.
Ferromagnetic oxide and metal coupling layers raise magnetic anisotropy, data retention, and MTJ resistance ratio in magnetoresistance memory.
A PMA vortex sense layer enables high out-of-plane sensitivity in thin magnetoresistive elements, easing fabrication and increasing sensor density.
An antiferromagnetically coupled sense layer cuts stray-field hysteresis in 2D magnetic sensors while preserving sensitivity and signal quality.
A biased hexaferrite crystal uses photoinduced magnetoelectric resonance shifts to detect radiation faster and with lower X-ray dose.
Segmented ferromagnetic sense layers cut anisotropy and angular error in self-referenced magnetic tunnel junction sensors at low fields.
A Ta and FeB transition bilayer improves tunnel barrier quality in MTJs, cutting switching voltage, power use, and endurance loss.
Atomic layer deposition forms seamless sub-100 nm vias for magnetoresistive stacks, improving conductivity and structural integrity.
A magnetoresistive sensor layer stack uses a metal multilayer to induce perpendicular magnetic anisotropy in the free layer.
A spin-orbit torque magnetic field sensor uses alternating current to switch a magnetic layer state.