A rotationally mounted linear array of light sources projects concentric rings onto the eye to enable precise optical measurements.
Powered ophthalmic lenses detect extreme gaze angles using iris-facing photodetectors to trigger focal state changes, reducing manufacturing complexity.
A convex reflector folds the optical path to reduce instrument footprint while maintaining high-contrast image projection accuracy.
Segmenting detection into narrow and wide angular ranges resolves indirect assessment limitations for precise ocular scattering quantification.
A head-mounted optical measuring device uses an adjustable illumination unit to create a well-defined pattern for eye parameter capture.
Dual-band spectral sampling combines broadband sparse and narrowband dense data to reconstruct high axial resolution images.
Second control unit decreases light amount irradiating the eye to be inspected after finishing a first scan and before starting a second scan.
A processing device corrects image data sets using interferometric measurement data to enhance geometric accuracy.
A head-mounted display detects user gaze shifts to adjust virtual object positioning for accurate alignment.
An OCT apparatus captures three-dimensional tomographic images and extracts two-dimensional slices for display.
Automated home testing detects myopia progression by analyzing chromatic aberration across multiple color wavelengths, reducing reliance on clinical visits.