Integrated UV LEDs, beam homogenization, and shared-objective imaging cut bulk, power loss, and maintenance in ophthalmic UV delivery.
Integrated UV LEDs, beam homogenization, and compact imaging enable uniform LAL adjustment with lower optical loss, heat, and size.
Accounts for epithelial thickening after refractive eye surgery to improve incision positioning and complete lenticule extraction.
An annular laser pattern inside the crystalline lens boosts accommodation while avoiding capsule and pillar damage in presbyopia treatment.
Crossed polarizers and spectral filtering suppress Purkinje and retinal red reflections, making vitreous floaters easier to target with a laser.
Retinal spot spacing and an eye model are used to locate floaters relative to the lens and retina before laser treatment.
A deployable wire loop disrupts and cauterizes ocular tissue through one puncture, reducing tool changes, bleeding, and procedure time.
A transformed curved scan path compensates for eye tilt, preserving precise symmetrical laser incisions without slowing treatment.
A spatial light modulator shifts pixelated corneal illumination with eye motion to keep cross-linking uniform and treatment precise.
Real-time viewing and shared-aperture beam guidance help target vitreous floaters precisely while reducing collateral damage during laser treatment.
Calculates topographic and astigmatism vectors to improve excimer laser treatment recommendations and avoid under- or overcorrection.
A layered femtosecond laser cutting pattern boosts lenticule yield from one donor cornea while a flattened holder prevents thin implants from rolling or folding.
Real-time OCDR localization guides laser focus onto vitreous floaters, improving targeting while reducing retinal and eye-structure risk.
A tapered cam slot, clocking key, and sleeve align multi-core fibers to laser spots within about 10 microns for better coupling and power uniformity.
A broad-area light source and opaque eye mask with transparent openings target the ciliary body without complex laser alignment.
Local dimming cuts light through the pupil while boosting non-pupil illumination to improve eye tracking SNR and reduce retina risk.
A vented working tip passively aspirates intraocular fluid, reducing instrument exchanges, ocular trauma, and surgery time.
Soft elastomer on the lens cone and toothed gripper jaws increase coupling security, limiting eye movement and misalignment during laser surgery.
A MEMS mirror, diode laser, and mobile control cut the size and cost of multi-spot retinal treatment while fitting existing slit-lamps.