  The highest three-dimensional (3D) resolution possible in in-vivo retinal
imaging is achieved by combining optical coherence tomography (OCT) and
adaptive optics (AO). However, this combination brings important limitations,
such as small field-of-view and complex, cumbersome systems, preventing so far
the translation of this technology from the research lab to clinics. In this
Letter, we introduce an approach that avoids these limitations by using a
multi-actuator adaptive lens just in front of the eye, in a technique we call
the adaptive-glasses wavefront sensorless approach. We implemented this
approach on our compact full-field OCT (FFOCT) retinal imager without
increasing its footprint or optical complexity. The correction of ocular
aberrations through the adaptive-glasses approach increased the FFOCT
signal-to-noise ratio and enabled us to image different retinal layers with a
3D cellular resolution in a 5{\deg} $\times$ 5{\deg} field-of-view, without
apparent anisoplanatism.
