Abstract: A method of virtually fitting an eyeglass frame is disclosed. A virtual try-on module receives an image of a user wearing an existing eyeglass frame from a user device; determines eyeglass frame dimension information; determines pupil diameter and segment height; determines a set of frames based on a bridge dimension; and sends the determined set of frames to the user device for display. Another method of virtually fitting an eyeglass frame to a user is also disclosed. A virtual try-on module receives image and eyeglass frame dimension information; determines pupil diameter and segment height; provides a sample set of eyeglass frames, each eyeglass frame in the set of eyeglass frames having lenses with pad printer marks; determines a subset of the sample set of eyeglass frames; and sends the determined subset of frames to the user device for display on the user device of the user.

Abstract: A method for providing eyewear to a customer includes touchlessly scanning eyewear selected by a customer with a laser tracer having a laser-camera assembly, producing from the laser-camera scan an electronic 3D representation of at least a portion of the eyewear, electronically transmitting the 3D representation to an eyewear part manufacturer, and, based upon the 3D representation received, manufacturing a finished eyewear product having the eyeglass prescription of the customer. An eyewear scanning system as the laser tracer employs the method by holding the eyewear within a housing. A scanner subassembly has the laser-camera assembly with the camera positioned at a fixed angle to the laser and sighted toward the eyewear. A scanner movement assembly moves the scanner subassembly with respect to the eyewear. A computer is programmed to conduct a scan of the eyewear with the laser and the camera and to produce the three-dimensional representation.

Abstract: An autorefractor-keratometer device including a first laser scanning device that emits a plurality of laser scans, a second laser device that emits a laser pulse, a first detector that detects the plurality of emitted laser line scans to determine corneal topography, and a second detector that detects a reflection of the emitted laser pulse to determine sphero-cylinder refraction.