An ophthalmologic system uses an eye tracker to determine placement for OCT scans, reproducing pre-operative B-scans despite intraoperative eye movement.
Dual scanning controls acquire multiple temporally distinct OCT signal groups to generate robust motion contrast data despite subject movement interference.
Merging adaptive optics with Fourier domain OCT and scanning laser ophthalmoscopy reduces device complexity while enhancing retinal layer visualization.
Galvanometer mirrors replace manual repositioning to reduce scanning time while maintaining measurement precision for volumetric biomechanical data.
Superimposes motion contrast data onto structural images to resolve vessel identification challenges.
Controls light intensity and timing to measure dark adaptation responses, detecting early signs of age-related macular degeneration.
Front image registration detects positional deviation during OCT signal acquisition to correct phase errors and ensure accurate motion contrast data.
A fundus examination apparatus control method integrates imaging and perimetry functions into a single optical platform.
A device combines interferometric and non-interferometric systems to determine eye axial length.