Patent classifications
B29D11/00884
SYSTEM AND METHOD OF DEVELOPING NANOSTRUCTURED MULTIFUNCTIONAL SMART CONTACT LENS
A smart contact lens includes a contact lens, a nanostructures layer, a first sensor, a connector, and a smart module. The nanostructures layer may be anti-bacterial. The smart contact lens may be worn on an eye or may be implanted within an eye. The nanostructures layer is fabricated by depositing a colloidal dispersion onto an electrostatically-coated substrate. The colloidal dispersion is then removed and nanoholes are etched. The electrostatic coating is removed and a biocompatible material is spin-coated onto the substrate. Upon removal, a quasi-randomly distributed nanostructures layer forms.
LENS WITH AN ANTIFOG COATING AND METHOD OF MAKING SAME
A lens with antifog coating having an improved properties and methods of forming such a coating are disclosed. The lens with an antifog coating may include: a lens composed of a transparent optical material; a hydrophilic layer applied only on a first surface of the lens; and a hydrophobic nanolayer applied on top of the hydrophilic layer, In some embodiments, the hydrophobic nanolayer may be applied only on top of the hydrophilic layer applied on the first surface of the lens.
SYSTEMS AND METHODS FOR PRINTING ON A CONTACT LENS
One embodiment of a contact lens includes a lens body configured to fit directly on the surface of the eye and legible characters positioned on the lens body. Another embodiment of a contact lens comprises a lens body including polymeric material and a lens enhancing material (e.g., ink, silicone material, medicament material, and the like) encapsulated in the polymeric material. The lens enhancing material can be in the form of isolated sections distributed in the surrounding polymeric material. Methods of making contact lenses include forming a first lens layer including a first surface, forming a pattern on the first surface, and forming a second lens layer over the pattern.
Systems and methods for printing on a contact lens
One embodiment of a contact lens includes a lens body configured to fit directly on the surface of the eye and legible characters positioned on the lens body. Another embodiment of a contact lens comprises a lens body including polymeric material and a lens enhancing material (e.g., ink, silicone material, medicament material, and the like) encapsulated in the polymeric material. The lens enhancing material can be in the form of isolated sections distributed in the surrounding polymeric material. Methods of making contact lenses include forming a first lens layer including a first surface, forming a pattern on the first surface, and forming a second lens layer over the pattern.
Device fabrication using 3D printing
A fabrication process includes: 1) forming an object by 3D printing; 2) smoothing the object by applying a gel to the object to coat at least a portion of the object with a film of the gel; 3) subjecting the object coated with the film to vacuum; and 4) curing the film to yield the object coated with the cured film.
A Coating System for Coating an Optical Substrate, Method Thereof and Coated Optical Substrate
A coating system (10) for coating an optical substrate has an identification apparatus (40) configured for identifying an orientation of at least one mark on a surface of the optical substrate; a coating apparatus (30) configured to apply at least one coating material on at least a portion of the optical substrate in a predetermined pattern by a controlled deposition of the at least one coating material in an atomized droplet form; and a robotic placement arm (80) configured to move the optical substrate from the identification apparatus (40) to the coating apparatus (30) and position the optical substrate at a predetermined orientation relative to the coating apparatus (30) based on the orientation of the at least one mark. The coating system (10) may have a second coating apparatus, such as a spin coating apparatus.
METHOD AND APPARATUS FOR MANUFACTURING OPTICAL LENSES
A method is proposed for manufacturing lenses, in particular eyeglass lenses/spectacle lenses, wherein the lenses are blocked for processing/machining on one block side and are provided with a removable protective layer before the blocking. In particular, the protective layer is applied by rotation coating and is formed from an adhesive which is cured by means of electromagnetic radiation. According to another aspect, a method for manufacturing a lens is proposed, wherein a first flat side of the lens is processed in a shaping manner and coated and a second flat side of the lens is temporarily provided with a cover layer for coating the first flat side. According to a further aspect, an apparatus for manufacturing lenses is proposed, wherein the apparatus comprises a receiving station for receiving lenses, a delivery station for delivering lenses, one or more work stations and a handling device for handling the lenses.
GAP FILL OF IMPRINTED STRUCTURE WITH SPIN COATED HIGH REFRACTIVE INDEX MATERIAL FOR OPTICAL COMPONENTS
Embodiments of the present disclosure generally relate to a method for forming an optical component, for example, for a virtual reality or augmented reality display device. In one embodiment, the method includes forming a first layer on a substrate, and the first layer has a first refractive index. The method further includes pressing a stamp having a pattern onto the first layer, and the pattern of the stamp is transferred to the first layer to form a patterned first layer. The method further includes forming a second layer on the patterned first layer by spin coating, and the second layer has a second refractive index greater than the first refractive index. The second layer having the high refractive index is formed by spin coating, leading to improved nanoparticle uniformity in the second layer.
Gap fill of imprinted structure with spin coated high refractive index material for optical components
Embodiments of the present disclosure generally relate to a method for forming an optical component, for example, for a virtual reality or augmented reality display device. In one embodiment, the method includes forming a first layer on a substrate, and the first layer has a first refractive index. The method further includes pressing a stamp having a pattern onto the first layer, and the pattern of the stamp is transferred to the first layer to form a patterned first layer. The method further includes forming a second layer on the patterned first layer by spin coating, and the second layer has a second refractive index greater than the first refractive index. The second layer having the high refractive index is formed by spin coating, leading to improved nanoparticle uniformity in the second layer.
PHOTOCHROMIC LENS WITH LAMINATED FILM, METHOD FOR PRODUCING A PHOTOCHROMIC LENS, AND A SPECTACLE FRAME
An optical lens contains a laminated film, which includes a first adhesive layer, a first barrier layer, a photochromic layer, a second barrier layer, and a second adhesive layer. The layers are arranged in succession and the laminated film is substantially incorporated into the optical lens body. A method for producing this optical lens as well as a pair of spectacles containing this optical lens are also disclosed.