  The field of spinoptronics is underpinned by good control over photonic
spin-orbit coupling in devices that possess strong optical nonlinearities. Such
devices might hold the key to a new era of optoelectronics where momentum and
polarization degrees-of-freedom of light are interwoven and interfaced with
electronics. However, manipulating photons through electrical means is a
daunting task given their charge neutrality and requires complex electro-optic
modulation of their medium. In this work, we present electrically tunable
microcavity exciton-polariton resonances in a Rashba-Dresselhaus spin-orbit
coupling field at room temperature. We show that a combination of different
spin orbit coupling fields and the reduced cavity symmetry leads to tunable
formation of Berry curvature, the hallmark of quantum geometrical effects. For
this, we have implemented a novel architecture of a hybrid photonic structure
with a two-dimensional perovskite layer incorporated into a microcavity filled
with nematic liquid crystal. Our work interfaces spinoptronic devices with
electronics by combining electrical control over both the strong light-matter
coupling conditions and artificial gauge fields.
