Abstract: An illuminated device is disclosed which can be used as a seat for a swing or zipline. The device includes an outer shell, a plurality of sockets formed in a tray or the inside of the outer shell, a plurality of light-emitting elements disposed in the sockets and facing an outer periphery of the outer shell, a plurality of retainers fitting into the sockets and retaining the light-emitting elements in the sockets, and an upper lid closing a cavity defined by the outer shell. The sockets each include an upward opening groove formed in at least the rear wall of the socket, and the light-emitting elements are disposed in the upward opening groove. The retainers have a downward-opening groove in which the light-emitting elements are retained. The device may also include downward-facing light emitting elements immobilized in bosses of the outer shell, by the tray.

Abstract: A child resistant container (10) has a container cavity (20) for the receipt of one or more items to be stored therein. The container cavity (20) is defined by a pair of lids (14, 16) which are hingedly connected to one another. Primary lock means (50) includes a first lock assembly on one lid (14, 16) which engages with a second lock assembly on the other lid (14, 16). A primary lock actuation includes an externally open topped pocket (60) formed in the body of said one lid (14, 16). The pocket (60) has a pocket side wall (62) which is resiliently deflectable from a lock position to an unlock position. The pocket (60) is shaped and sized to permit a finger of an operative to enter the pocket (60) to effect deflection of the pocket side wall (62) to its unlock position.

Abstract: A lancing device formed from a main body and a cap. The main body is configured from a lower housing, an upper housing extending over a portion of the lower housing, and an actuator operatively engaged to the upper and lower housings with the actuator extending along the portion of the lower housing not covered by the upper housing. The upper housing further includes an actuator button, wherein a lancet may be placed within the body such that movement of the actuator from a first position to a second position away from said endcap cocks the lancet for firing, which is achieved by depressing the actuator button. Conveniently, the lancing device is configured for tactile recognition in the palm of a human hand and may preferably be operated one handed and without visual observation.

Abstract: A child resistant container (10) has a container cavity (20) for the receipt of one or more items to be stored therein. The container cavity (20) is defined by a pair of lids (14, 16) which are hingedly connected to one another. Primary lock means (50) includes a first lock assembly on one lid (14, 16) which engages with a second lock assembly on the other lid (14, 16). A primary lock actuation includes an externally open topped pocket (60) formed in the body of said one lid (14, 16). The pocket (60) has a pocket side wall (62) which is resiliently deflectable from a lock position to an unlock position. The pocket (60) is shaped and sized to permit a finger of an operative to enter the pocket (60) to effect deflection of the pocket side wall (62) to its unlock position.

Abstract: A lancing device formed from a main body and a cap. The main body is configured from a lower housing, an upper housing extending over a portion of the lower housing, and an actuator operatively engaged to the upper and lower housings with the actuator extending along the portion of the lower housing not covered by the upper housing. The upper housing further includes an actuator button, wherein a lancet may be placed within the body such that movement of the actuator from a first position to a second position away from said endcap cocks the lancet for firing, which is achieved by depressing the actuator button. Conveniently, the lancing device is configured for tactile recognition in the palm of a human hand and may preferably be operated one handed and without visual observation.

Abstract: A method and apparatus uses photoluminescence to identify defects in one or more specified material layers of a sample. One or more filtering elements are used to filter out predetermined wavelengths of return light emitted from a sample. The predetermined wavelengths are selected such that only return light emitted from one or more specified material layers of the sample is detected. Additionally or alternatively, the wavelength of incident light directed into the sample may be selected to penetrate the sample to a given depth, or to excite only one or more selected material layers in the sample. Accordingly, defect data characteristic of primarily only the one or more specified material layers is generated.

Abstract: A method for using photoluminescence to identify defects in a sub-surface region of a sample includes performing a first probe of the sample. A first data set, based on the first probe, is produced indicating defects located primarily in a surface layer of the sample. A second data set, based on a second probe, is produced indicating defects located in both the surface layer and a sub-surface region of the sample. The first data set is subtracted from the second data set to produce a third data set indicating defects located primarily in the sub-surface region of the sample. The first data set may optionally be normalized relative to the second data set before performing the subtraction. The first and second probes may advantageously be performed using a first laser and a second laser, respectively, having different wavelengths from each other.

Abstract: A method for using photoluminescence to identify defects in a sub-surface region of a sample includes performing a first probe of the sample. A first data set, based on the first probe, is produced indicating defects located primarily in a surface layer of the sample. A second data set, based on a second probe, is produced indicating defects located in both the surface layer and a sub-surface region of the sample. The first data set is subtracted from the second data set to produce a third data set indicating defects located primarily in the sub-surface region of the sample. The first data set may optionally be normalized relative to the second data set before performing the subtraction. The first and second probes may advantageously be performed using a first laser and a second laser, respectively, having different wavelengths from each other.

Abstract: A method and apparatus uses photoluminescence to identify defects in one or more specified material layers of a sample. One or more filtering elements are used to filter out predetermined wavelengths of return light emitted from a sample. The predetermined wavelengths are selected such that only return light emitted from one or more specified material layers of the sample is detected. Additionally or alternatively, the wavelength of incident light directed into the sample may be selected to penetrate the sample to a given depth, or to excite only one or more selected material layers in the sample. Accordingly, defect data characteristic of primarily only the one or more specified material layers is generated.