Abstract: A jewelry clasp is disclosed and includes a first part including a first magnet, a first groove and a first catch and a second part including a second magnet, a second groove and a second catch. The first and second magnets generate an attractive force holding the first part to the second part, the first catch is received in the second groove and the second catch is received in the first groove. A relief disposed on at least one of the first part and the second part at an interface between the first part and the second part is provided to aid in releasing the first part from the second part.

Abstract: A jewelry clasp is disclosed and includes a first part including a first magnet, a first groove and a first catch and a second part including a second magnet, a second groove and a second catch. The first and second magnets generate an attractive force holding the first part to the second part, the first catch is received in the second groove and the second catch is received in the first groove. A relief disposed on at least one of the first part and the second part at an interface between the first part and the second part is provided to aid in releasing the first part from the second part.

Abstract: A jewelry clasp is disclosed and includes a first part including a first magnet, a first groove and a first catch and a second part including a second magnet, a second groove and a second catch. The first and second magnets generate an attractive force holding the first part to the second part, the first catch is received in the second groove and the second catch is received in the first groove. A relief disposed on at least one of the first part and the second part at an interface between the first part and the second part is provided to aid in releasing the first part from the second part.

Abstract: A disclosed vertical planter box assembly includes perimeter walls defining an interior space for holding plants. The perimeter wall includes openings aligned around the interior space. A water basin is provided at a top side for communicating water into the interior space. A drip tray is supported below a bottom side for capturing draining water from the interior space. A plurality of pins extend through the openings and across the interior space to hold the plant structures in place within the interior space.

Abstract: A system for data integration for a virtual environment, the system including: a game backend; a plurality of game clients, wherein each of the game clients comprise a client engine which is connected to the game backend; a plurality of data sources; and a data engine connected with the game backend and with the plurality of data sources, wherein the data engine retrieves data from the data sources and provides it to the game backend for use by the game clients, via the client engine. A method for data integration for a virtual environment, the method including: receiving a data request from a game client; retrieving data from a data source that complies with the data request or, if data is not available from the data source, synthesizing data; transforming the retrieved data into a format usable by the game client; and transmitting the data to the game client.

Abstract: A method for treating a subject with multiple sclerosis is disclosed herein. In one embodiment, a method is provided for treating a subject with multiple sclerosis that includes administering to the subject a therapeutically effective amount of 2ME2 or a derivative thereof.

Abstract: A method for treating a subject with multiple sclerosis is disclosed herein. In one embodiment, a method is provided for treating a subject with multiple sclerosis that includes administering to the subject a therapeutically effective amount of 2ME2 or a derivative thereof.

Abstract: An aperture arrangement is disclosed, such as an aperture arrangement suitable for use with a dual wavelength infrared detector. A detector is disclosed which includes a casing; an aperture defined in one end of the casing; and a filter having an inner region and an outer region substantially (e.g., greater than 50%) covering the aperture; wherein the outer region of the filter transmits radiation within a first range of wavelengths and reflects radiation within a second range of wavelengths.

Abstract: An aperture arrangement is disclosed, such as an aperture arrangement suitable for use with a dual wavelength infrared detector. A detector is disclosed which includes a casing; an aperture defined in one end of the casing; and a filter having an inner region and an outer region substantially (e.g., greater than 50%) covering the aperture; wherein the outer region of the filter transmits radiation within a first range of wavelengths and reflects radiation within a second range of wavelengths.

Abstract: A plurality of computers in a network each have a processor and a non-volatile data storage device such as a hard disk, a raid array, or the like. Each data storage device is divided into a first data storage area and a second data storage area. The first data storage area is reserved for use by at least one processor to which it is assigned, whereas the second data storage area is hidden from use by the file system of the computer, and is used to store replicated data of other ones of the plurality of computer entities. In the event of failure of any one of the data storage devices, data can be recovered from the second data storage areas of the other data storage devices.

Abstract: A plurality of computers in a network each have a processor and a non-volatile data storage device such as a hard disk, a raid array, or the like. Each data storage device is divided into a first data storage area and a second data storage area. The first data storage area is reserved for use by at least one processor to which it is assigned, whereas the second data storage area is hidden from use by the file system of the computer, and is used to store replicated data of other ones of the plurality of computer entities. In the event of failure of any one of the data storage devices, data can be recovered from the second data storage areas of the other data storage devices.

Abstract: A method of manufacturing an optical device, wherein the device body portion from which the device is to be made includes at least one Quantum Well, the method including the step of causing an impurity material including copper to intermix with the Quantum Well.

Abstract: There is disclosed an improved method of manufacturing of an optical device (40), particularly semiconductor optoelectronic devices such as laser diodes, optical modulators, optical amplifiers, optical switches, and optical detectors. The invention provides a method of manufacturing optical device (40), a device body portion (15) from which the device (40) is to be made including a Quantum Well (QW) structure (30), the method including the step of: processing the device body portion (15) so as to create extended defects at least in a portion (53) of the device portion (5). Each extended defect is a structural defect comprising a plurality of adjacent “point” defects.

Abstract: There is disclosed an improved method of manufacturing an optical device using impurity induced Quantum Well Intermixing (QWI) process.

Abstract: A plurality of computers in a network (503-505) each have a processor and a non-volatile data storage device (500-502) such as a hard disk, a raid array, or the like. Each data storage device is divided into a first data storage area (203-205) and a second data storage area (509-511). The first data storage area is reserved for use by at least one processor to which it is assigned, whereas the second data storage area is hidden from use by the file system of the computer, and is used to store replicated data of other ones of the plurality of computer entities. In the event of failure of any one of the data storage devices, data can be recovered from the second data storage areas of the other data storage devices.

Abstract: A plurality of computers in a network (503-505) each have a processor and a non-volatile data storage device (500-502) such as a hard disk, a raid array, or the like. Each data storage device is divided into a first data storage area (203-205) and a second data storage area (509-511). The first data storage area is reserved for use by at least one processor to which it is assigned, whereas the second data storage area is hidden from use by the file system of the computer, and is used to store replicated data of other ones of the plurality of computer entities. In the event of failure of any one of the data storage devices, data can be recovered from the second data storage areas of the other data storage devices.