Keywordsn/a; silk; Bombyx mori silk fibroin; membranes; poly(ethylene glycol); porosity; surface topography; permeability; corneal epithelial cells; cell attachment; gene therapy; non-viral vectors; lipid nanoparticles; solid lipid nanoparticles; liposomes; keratoconus; transforming growth factor-β; collagen gels; extracellular matrix; matrix metalloproteases; lacrimal glands; regenerative medicine; 3D cell manipulation; organ regeneration; dry eye disease; uveitis; non-infectious uveitis; intraocular implant; uveitis treatment; ocular drug delivery device; cornea; corneal diseases; peptide amphiphiles; bioactive molecules; tissue engineering; corneal tissue engineering; wound healing; biomaterials; cornea; ex vivo cultivation; limbal stem cell deficiency; ocular surface disease; transplantation; cell sources; corneal endothelium; human corneal endothelial cells; substrates; tissue engineering; Bombyx mori; silk fibroin; tropoelastin; Bruch’s membrane; retinal pigment epithelium; age-related macular degeneration; Schlemm’s canal; conventional outflow tract; intraocular pressure; glaucoma; biomimetics; tissue engineering; nanofabrication; conjunctiva; epithelium; biomaterials; membranes; culture; tissue engineering; goblet cells; ocular surface; transplantation; ex vivo expanded human limbal epithelial cells; gene expression; histone-coding genes; hypothermic storage; limbal stem cell deficiency; cornea; limbal stem cell deficiency; ocular surface disease; oral mucosal epithelial cell sheet; substrates
