An automated laser eye-surgery system uses computer image processing to detect anatomical features and determine incision placement parameters.
Segmenting the cornea into independent semi-meridians resolves inconsistent astigmatism quantification by applying distinct vector parameters to each half.
Focused pulsed laser radiation creates precise corneal incisions with controlled cross-sectional profiles.
Sequential laser pulses establish baseline signals to determine cell lysis, preventing over-treatment damage to surrounding tissues.
An applicator couples mechanical pressure waves alongside electrical current, light, and ultrasound into tissue for simultaneous treatment.
A laser processing method aligns interaction zones to overlap within material layers using pulsed radiation.
A scleral lens features a central virtual pinhole with a darkened internal wall to provide stable vision correction.
Red light photobiomodulation replaces invasive injections to reduce oxidative stress and delay diabetic retinopathy progression.
Direct examination of ablated test bodies determines fluence and spot shape, resolving measurement precision trade-offs in laser eye treatment systems.
Segmented laser cuts correct astigmatic aberrations without compromising tissue strength, resolving the precision-strength trade-off.
An actuation structure curves a housing tube to steer an optic fiber, resolving the trade-off between structural stability and steering capability.
A contact lens assembly uses magnetic anchoring to secure positioning during eye surgery.
A laser ablation system creates a filtration pathway in scleral tissue without penetrating the eye.
A decondenser introduces dry gas to remove vapor condensation from an ophthalmic contact lens, preserving image precision during surgical alignment.
Fundus camera imaging identifies blood vessels to guide automated laser targeting, reducing surgical time and labor intensity.
A planning unit generates control data to establish precise cornea cutting planes including cap and lenticule cuts.
A movable mirror switches between femtosecond laser exposure and confocal microscopy imaging.
Photochemical bonding creates stable intraocular lens fixation without mechanical stress or uncontrolled fibrosis.
Thermal denaturing of collagen via scanning laser beams eliminates errant tears and ensures precise intraocular lens alignment.
Pulsed laser beams create annular and radial sidecut incisions in donor and recipient corneas for precise tissue resection.
A controller adjusts valve duty cycle using real-time pressure sensor feedback to balance pneumatic channels.
A dynamic elongate element expands to position a cutting loop around the lens, reducing capsular bag damage during cataract surgery.