Abstract: This invention details a contact lens that uses a reservoir of fluid compressed by the lower lid to dynamically shift the refractive power of the lens. This creates a lens that has a plurality of focal points depending on the position of gaze. This can be accomplished through using fluid pressure to dynamically change the optical power in the visual axis of the eye.

Abstract: Several methods for making a contact lens with a reservoir are disclosed. The reservoir is filled with fluid and is shaped to change dynamically the optical characteristics of the lens. One method includes forming two shells with a depression therebetween, laminating the shells together, with the reservoir being filled with a fluid. Other methods include molding lens shells and laminating them together, or forming the lens with a unitary body using laser printing techniques.

Abstract: This invention pertains to a soft contact lens that has a body with a central zone aligned with the optical axis of the eye when a wearer wears the lens. A micro-channel filled with fluid, is positioned at or near the optic zone and is arranged so that when the fluid is pressurized, the micro-channel expands and changes the optical characteristics of the central zone. The pressure in the microchannel is controlled through changes to a reservoir disposed in the lens below the optic zone.

Abstract: Several methods for making a contact lens with a reservoir are disclosed. The reservoir is filled with fluid and is shaped to change dynamically the optical characteristics of the lens. One method includes forming two shells with a depression therebetween, laminating the shells together, with the reservoir being filled with a fluid. Other methods include molding lens shells and laminating them together, or forming the lens with a unitary body using laser printing techniques.

Abstract: This invention pertains to a soft contact lens that has a body with a central zone aligned with the optical axis of the eye when a wearer wears the lens. A micro-channel filled with fluid, is positioned at or near the optic zone and is arranged so that when the fluid is pressurized, the micro-channel expands and changes the optical characteristics of the central zone. The pressure in the microchannel is controlled through changes to a reservoir disposed in the lens below the optic zone.

Abstract: A method and apparatus to perform non-invasive molecular detection and analysis are disclosed. The apparatus incorporates co-incident biphotons as the Raman backscattering excitation source and the detection and analysis of the resulting backscatter characteristics is performed through quantum state transfer between entangled biphotons, as well as conventional means.

Abstract: An in-vivo blood composition analyzing apparatus and method generates a laser beam at the blood vessels of the patient's eye. The Raman scattered photons from the blood vessels are collected and used to generate a Raman spectrum indicative of the blood composition. In one embodiment, a laser beam is generated with two streams of photons, the photons of one beam being entangled with the photons of the other beam. One stream is then directed at the eye and only the other beam is analyzed to obtain said Raman spectrum. Alternatively, the scattered photons from the second beam are also analyzed and the results are correlated for greater efficiency and accuracy.

Abstract: An analyzing apparatus and method generates a laser beam at a target. The Raman scattered photons from the target are collected and used to generate a Raman spectrum indicative of the composition of materials associated with the target, such as components of chemical or biological weapons. In one embodiment, a laser beam is generated with two streams of photons, the photons of one beam being entangled with the photons of the other beam. One stream is then directed at the target and only the other beam is analyzed to obtain said Raman spectrum. Alternatively, the scattered photons from the second beam are also analyzed and the results are correlated for greater efficiency and accuracy.

Abstract: An in-vivo blood composition analyzing apparatus and method generates a laser beam at the blood vessels of the patient's eye. The Raman scattered photons from the blood vessels are collected and used to generate a Raman spectrum indicative of the blood composition. In one embodiment, a laser beam is generated with two streams of photons, the photons of one beam being entangled with the photons of the other beam. One stream is then directed at the eye and only the other beam is analyzed to obtain said Raman spectrum. Alternatively, the scattered photons from the second beam are also analyzed and the results are correlated for greater efficiency and accuracy.