Abstract: The present invention provides a method for photographing lustrous objects, including even spectacle frames with highly reflective surfaces such as metal frames, that enables the objects to be photographed more naturally and aesthetically without any reflection on the surface of the camera or lens. The present invention also provides a method for photographing spectacle frames and a method for creating an electronic spectacle frame catalogue using this method. The method is one in which the camera 2 photographs the lustrous object 1. Optical shield members 3, 4, and 5 are placed between the camera body 21 and the lens 22 of the camera 2, and the lustrous object 1 so that a reflection of said camera 2 is not be formed on the photographed image of the lustrous object. In addition, an opening 41, having a size and shape suitable for photographing an image of the lustrous object 1, is provided in the shield member 4 of the lens 22.

Abstract: The present invention provides a method for photographing lustrous objects, including even spectacle frames with highly reflective surfaces such as metal frames, that enables the objects to be photographed more naturally and aesthetically without any reflection on the surface of the camera or lens. The present invention also provides a method for photographing spectacle frames and a method for creating an electronic spectacle frame catalogue using this method. The method is one in which the camera 2 photographs the lustrous object 1. Optical shield members 3, 4, and 5 are placed between the camera body 21 and the lens 22 of the camera 2, and the lustrous object 1 so that a reflection of said camera 2 is not be formed on the photographed image of the lustrous object. In addition, an opening 41, having a size and shape suitable for photographing an image of the lustrous object 1, is provided in the shield member 4 of the lens 22.

Abstract: The present invention provides a method for photographing lustrous objects, including even spectacle frames with highly reflective surfaces such as metal frames, that enables the objects to be photographed more naturally and aesthetically without any reflection on the surface of the camera or lens. The present invention also provides a method for photographing spectacle frames and a method for creating an electronic spectacle frame catalogue using this method. The method is one in which the camera 2 photographs the lustrous object 1. Optical shield members 3, 4, and 5 are placed between the camera body 21 and the lens 22 of the camera 2, and the lustrous object 1 so that a reflection of said camera 2 is not be formed on the photographed image of the lustrous object. In addition, an opening 41, having a size and shape suitable for photographing an image of the lustrous object 1, is provided in the shield member 4 of the lens 22.

Abstract: The present invention provides a method for photographing lustrous objects, including even spectacle frames with highly reflective surfaces such as metal frames, that enables the objects to be photographed more naturally and aesthetically without any reflection on the surface of the camera or lens. The present invention also provides a method for photographing spectacle frames and a method for creating an electronic spectacle frame catalogue using this method. The method is one in which the camera 2 photographs the lustrous object 1. Optical shield members 3, 4, and 5 are placed between the camera body 21 and the lens 22 of the camera 2, and the lustrous object 1 so that a reflection of said camera 2 is not be formed on the photographed image of the lustrous object. In addition, an opening 41, having a size and shape suitable for photographing an image of the lustrous object 1, is provided in the shield member 4 of the lens 22.

Abstract: To enable the simulation of a state, which approximates an actual eyeglasses wearing state, by integrating previously-inputted prescription data, lens material data and lens design data, with selected frame shape data, enabling the easy and accurate determination of eyeglasses that are to one's liking. Provides more information relative to frame data, and makes selection easier by using a multi-media catalog comprising photographs of frames and frame-related text and audio. Further, facilitates selection by actively introducing a pair comparison and selection screen, which compares side-by-side 2 of the same eyeglasses try-on screens, which display selected eyeglasses.

Abstract: A spectacle lens supply method for a system which includes a terminal installed at a lens orderer side and at least a computing device installed at a lens processor side and connected to the terminal via a communication line, for supplying spectacle lenses. In the lens supply method, the terminal transmits processing condition data including at least one of lens information, frame information, prescription values, layout information and processing information to the computing device, and the computing device calculates a desired lens shape including a bevel figure based on the received processing condition data, creates accept/reject information as to whether a lens process including beveling is possible or not, based on the result of the calculation, and transmits the accept/reject information to the terminal, which information is displayed at the terminal to permit the lens orderer to learn whether the lens process including beveling is possible or not.

Abstract: In an apparatus for measuring a configuration of each of a pair of lens frames (4a, 4b) of a spectacle framework (3), a measuring element (230) is arranged for horizontal and vertical movement relative to the lens frames fixedly held by a holding device (100). The measuring element is movable angularly about an optional reference point (O) within one of the lens frames, along an inner periphery of the lens frame, while causing the measuring element to be in contact with the inner periphery of the lens frame. A first detector unit (224) detects horizontal straight displacement (r) of the measuring element from the reference point. A second detector unit (233) detects vertical straight displacement (z) of the measuring element from the reference point. A third detector unit (209) detects an angle (.theta.) of the angular movement of the measuring element about the reference point.

Abstract: A method for determining the optimum thickness of an ophthalmic lens comprises the steps of applying data indicative of the kind of a lens suitable for a spectacle wearer and the contents of a prescription as inputs to a computer, executing necessary computation by the computer according to a predetermined program on the basis of the various input data thereby drawing a map of an equi-thickness line group of the ophthalmic lens on the basis of the result of computation, and placing a spectacle frame at a predetermined position on the map of the equi-thickness line group to find out the outermost equi-thickness line within the extent of the frame.