Abstract
This work reports a compact behavioral model for the hysteretic
conduction characteristics of
Al/Gd0.1Ca0.9MnO3(GCMO)/Au
resistive switching devices suitable for SPICE simulations. The devices
are nonvolatile, forming-less, compliance-free, and self-rectifying
multistate memristive structures which makes them of maximum interest
for neuromorphic computing and memory applications. The proposed model
relies on two coupled equations, one for the electron transport and a
second one for the vacancy displacement. The proposed model considers a
novel approach for solving the internal state of the device based on the
so-called generalized quasi-static hysteron whose application can be
extended to other structures and dynamics in addition to the ones
discussed here.