Modification of contact lenses via metal-organic frameworks for glaucoma treatment

Abstract

The prevention of blindness from glaucoma requires multiple treatments to lower intraocular pressure. Here, human contact lenses are modified with highly porous metal-organic frameworks with sustained release of brimonidine for prolonged glaucoma treatment. Various metal-organic frameworks were screened for their attachment to lenses, loading with brimonidine, and drug-release properties. Optimized therapeutic ocular lenses conjugated with MIL-101(Cr) frameworks maintain optical transparency and power. Coating of lenses with MIL-101(Cr) nanoparticles reduced brimonidine washout with tears and ensured a gradual and localized release of the drug into the eyeball through the cornea. The hybrid lenses provided a 4.5- fold better decrease in eye pressure, compared by area under the curve (AUC) value to a commercially available brimonidine tartrate solution. Therapeutic lenses did not induce any notable eye irritation or corneal damage in vivo. The newly developed hybrid lenses are expected to provide a robust platform for the therapy and prevention of various ocular diseases.

Keywords

brimonidine / contact lenses / drug delivery / glaucoma / intraocular pressure / metal-organic frameworks / nanoparticles

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