There is described a contact lens package containing a bowl for holding a contact lens. The bowl is sealed by a film engaging the bowl so as to hold a contact lens between said bowl and the film. A lens is placed in saline between the bowl and the film. Finally, there is contained a light management protective cover attached to the bowl. This controls the type of light which passes through said cover and onto said bowl. Typically, the cover is impervious to ultraviolet light.

There is described a contact lens package containing a bowl for holding a contact lens. The bowl is sealed by a film engaging the bowl so as to hold a contact lens between said bowl and the film. A lens is placed in saline between the bowl and the film. Finally, there is contained a light sensitive cover attached to the bowl. This controls the type of light which passes through said cover and onto said bowl. Typically, the cover is impervious to ultraviolet light.

A heat sealable, retortable laminated foil capable of being heat sealed to itself or to a polypropylene substrate in forming a contact lens package includes an outer polymeric barrier layer, an intermediate barrier layer, an inner polymeric barrier layer, and a heat sealable layer.

The present disclosure provides a contact lens package containing a contact lens in a compressed state. In one exemplary embodiment, the overall internal depth of the package is less than the natural sagittal depth of the contact lens. Different single-use contact lens package shapes and configurations may be used. In some embodiments, a spring disc is included in the packages to help present the contact lens to the user when the package is opened. The contact lens packages may be adhered or clipped to a card or other carrier sheet, and may be housed in a number of different secondary packages.

A contact lens package includes a first package layer, a second package layer, a lens receiving area defined between the first and second package layers, and first and second seal portions. The first seal portion extends around a first portion of the lens receiving area. The second seal portion extends around a second portion of the lens receiving area. The second seal portion has different sealing properties than the first seal portion. The first seal portion may include a releasable seal between the first and second package layers, and the second seal portion may include a permanent seal between the first and second package layers.

An eye-mountable device includes a hydrogel material. By drying the hydrogel material of the eye-mountable device, ethylene oxide may be used to sterilize the eye-mountable device. Such a sterilization method can be employed to sterilize the eye-mountable device when the eye-mountable device includes electronics, sensors, actuated lenses, or other components that may be damaged by heat, pressure, radiation, or other conditions used for sterilization. The eye-mountable device may be stored, dry, within a sealed sterile volume of a packaging material. The packaging material may be permeable to ethylene oxide such that the dried eye-mountable device may be sterilized by ethylene oxide after being sealed within the packaging material. The eye-mountable device could take the form of a contact lens, the form of a device configured to be placed against a sclera of an eye beneath an eyelid of the eye, or could take some other form.

The present disclosure provides a contact lens package containing a contact lens in a compressed state. In one exemplary embodiment, the overall internal depth of the package is less than the natural sagittal depth of the contact lens. Different single-use contact lens package shapes and configurations may be used. In some embodiments, a spring disc is included in the packages to help present the contact lens to the user when the package is opened. The contact lens packages may be adhered or clipped to a card or other carrier sheet, and may be housed in a number of different secondary packages.

Disclosed is a method for packaging an optical lens including two faces and a peripheral edge, at least one of the faces having a convexity marked by a peak point, the method including the following steps: a step of depositing a protective strip made from a rigid material at least partially along the edge, the width of the strip extending beyond the peak point of the convex face of the lens; a step of inserting the lens into an envelope delimited by a wall; a step of positioning the lens in the envelope, such that the protective strip acts as a spacer in order to maintain a distance between the wall of the envelope and the convex face of the lens and thus preventing any contact between the wall and the face.

A packaging system for the storage of an ophthalmic device is disclosed. The packaging system comprises a sealed container containing one or more unused ophthalmic devices immersed in an aqueous packaging solution comprising one or more hydrophilic polymers or copolymers comprising hydrophilic units and endcapped with a hydrophobic end group and a hydrophilic end group, wherein the solution has an osmolality of at least about 200 mOsm/kg, a pH of about 6 to about 9 and is heat sterilized.

A blister package for a contact lens is provided. A deformable slider supporting a lens is movable via pull-tab or hinge to lift the contact lens out of a lens well. The deformable slider can include a hinge connected to a flexible peel-away top of the blister package or connected to a pull tab that can be pulled to pull taut the deformable slider. A blister package is also provided that includes a hinged shell having a lateral opening opposite the hinge, and a deformable slider that is folded over onto itself and seals both a top chamber and a bottom chamber. By pulling a tongue of the deformable slider, which extends from the lateral opening, the deformable slider can be removed from the closed shell and the closed shell can be opened enabling access to the contact lens.