Confocal laser measurement maps the actual contact element surface, improving focus alignment for precise optical breakthroughs despite shape tolerances.
A manifold cover channels pressurized gas around a pneumatic valve to remove heat and suppress noise during high-speed vitreoretinal use.
A free-floating scanner and support assembly follows eye movement to keep the laser beam aligned without rigid restraints or added system complexity.
A steel-disc elastomeric valve uses electromagnetic actuation to avoid stroke-dependent solenoid force loss and keep surgical fluid flow precise.
Automatic fluorescent plate imaging maps camera pixels and scan coordinates to treatment space, reducing manual laser calibration time.
Multiple offset laser sub-pulses raise refractive index writing speed while staying above absorption and below material breakdown thresholds.
A replaceable tip and curved treatment guide help a handheld battery-powered laser align with the ciliary body for more precise glaucoma treatment.
A free-floating scanner interface uses 3D bearings, reflectors, and a counterbalance to follow patient motion while keeping the laser beam aligned.
Axially polarized magnets create contactless self-alignment of coupled optical elements, maintaining coupling despite drift without servo electronics.
A free-floating eye interface lets the scanner move with the eye to maintain laser beam alignment without rigid restraints or complex supports.
An integrated treadle shroud keeps the laser switch protected by default while enabling intuitive foot access during delicate surgery.
Natural donor corneal tissue is laser-sculpted to match refractive needs while improving biocompatibility, hydration, and nutrient exchange.