Radial tension from actuating haptics deforms the elastic anterior face, restoring accommodation ability lost after cataract surgery.
A container housing an intraocular ring injector uses a moving mechanism to guide axial plunger motion.
A segmented intraocular lens injector uses a dedicated holder and folding body to ensure precise axial displacement during implantation.
Integrating a one-piece telescope into an intraocular lens optical element reduces structural complexity and flexural rigidity.
An inductive coil sensor detects eye convergence to drive a tunable liquid crystal lens, resolving limited accommodation capacity in aging eyes.
Haptic levers rotate about a fulcrum to stretch the softer anterior optic layer, increasing optical power without ciliary body attachment.
Interference dyes change color under mechanical stress to monitor ophthalmic implant loads, eliminating complex electronic wiring and power supply requirements.
An accommodating intraocular lens uses surface modifications and a force transfer assembly to bond with the capsular bag.
Rigid plate haptics resist ciliary muscle deformation to stabilize intraocular lens positioning and eliminate halos.
Geometric pattern marks encode center position and posture data under specific illumination, resolving visual obstruction trade-offs during fixation.
A spring-biased deployment carriage advances an intraocular lens through a folding chamber using controlled mechanical force.
Segmented plate haptics stabilize intraocular lens optics through flexible transverse hinges, resolving tilt and dislocation risks.
A foldable intraocular lens uses a non-convex rim and specialized haptics to anchor securely in the ciliary sulcus.
Sharp optic ridges and haptic teeth form physical barriers that limit epithelial cell migration to prevent posterior capsule opacification.
Rigid tapered flange translates axial ciliary muscle motion into lateral lens driver displacement for variable optical power.
Segmented diffractive zones in a partial optic add-on reduce halos and flare while addressing multiple vision problems.
A foldable secondary intraocular lens with a non-convex rim design anchors in the ciliary sulcus to coaxially magnify near images.
An oleophobic coating prevents fluid dispersion and fouling during flexible implantation of electrowetting lenses.
Liquid crystal elements within the lens adapt optical characteristics via electrical control, resolving static focal limitations in conventional designs.
Segmented haptics anchor an accommodating intraocular lens in the sulcus, preventing displacement into the iris-root during ciliary muscle contraction.
Integrated fixing parts anchor artificial eye lenses into the sclera, eliminating suturing threads that cause infection.
A multi-focal lens uses a preferential visual span design with distinct optical zones to focus light for simultaneous near and far vision.
Segmented intra-ocular lens elements separate fixed and variable optical power functions, reducing aberrations during accommodation.
Segmented haptic bars transfer ciliaris muscle forces to an intraocular lens optic portion.
A segmented contact lens transmits yellow light centrally and blue light peripherally to enhance optical performance.
A horseshoe-shaped exchangeable lens platform with a memory strip folds to fit capsular bags and engages haptic components.
Shape memory alloy reinforcement rings prevent warpage in intraocular lenses, ensuring optical clarity after unfolding through small incisions.
An integrated silicon lens driver reduces current consumption by applying high voltage only during periodic focus adjustments.
A transition region with non-integer optical path difference extends depth of field across varying pupil sizes.
A cassette integrates a foil seal and elastomer damper for intraocular lens handling.
A hydraulic delivery system advances surgical implants using a plunger and working fluid pressure.
A variable power accommodative intraocular lens changes optical power via ciliary muscle contractions.