Abstract: Embodiments of the present disclosure pertain to methods of customizing a pre-manufactured contact lens for a user by evaluating the conformance of a pre-manufactured contact lens to the user's eye profile (e.g., quantifying eye aberrations of the user's eye profile while the lens is worn) and conforming one or more optical properties of the pre-manufactured contact lens or a duplicate thereof to the user's eye profile based on the evaluation. In some embodiments, the conforming includes mounting the pre-manufactured contact lens on a contact lens mount and altering one or more optical properties of the pre-manufactured contact lens on the contact lens mount. Additional embodiments of the present disclosure pertain to systems for customizing a contact lens. Such systems include a convex contact lens mount with a base area operational for anchoring the convex contact lens mount, and a convex surface operational to mount the pre-manufactured contact lens.

Abstract: A method for classifying a patient's eye includes the steps of: obtaining normal and abnormal wavefront aberration data from normal and abnormal eyes; fitting the normal and abnormal eye wavefront aberration data with a basis function to decompose the normal and abnormal eye wavefront aberration data into normal and abnormal eye mathematical components; examining the normal and abnormal eye mathematical components to develop mathematical optical filters capable of discriminating between normal and abnormal eyes, using statistical methods to define a probability distribution; obtaining wavefront aberration data from the patient's eye; fitting the patient's wavefront aberration data with a basis function to decompose the patient's wavefront aberration data into the patient's set of mathematical components; examining the patient's set of mathematical components using the mathematical optical filters to generate a patient filter value; and classifying the patient's eye by comparing the patient filter value with t