Abstract: Embodiments of an outdoor cooking station having a main body and a griddle with a hood pivotably coupled to the griddle are provided. For safety purposes, the griddle is removably secured to an upper portion of the main body with the legs of the griddle positioned within apertures defined in an upward facing surface of the upper portion of the main body.

Abstract: A detector assembly includes a cap assembly configured to close an end of a detector housing that is configured to contain a sensor therein, the cap assembly has a radially expandable member configured to expand radially within the detector housing and lock the position of the cap assembly relative to the detector housing.

Abstract: A shell for a radiation sensor comprising a body defining an aperture adapted to receive a radiation sensing component; and a plurality of fins outwardly extending from the body, wherein an axial distance between a first pair of adjacent fins is different from an axial distance between a second pair of adjacent fins.

Abstract: A scintillator device includes an optically clear substrate, a scintillator plastic layer overlying the optically clear substrate, and an optically clear polymer layer between the optically clear substrate and the scintillator plastic layer. The optically clear polymer layer can mechanically and optically couple the scintillator plastic layer to the optically clear substrate. Further, the clear polymer layer can be configured to substantially reduce the formation of cracks in the scintillator plastic layer due to thermal expansion, thermal contraction, or a combination thereof, of the scintillator device.

Abstract: A scintillator device includes an optically clear substrate, a scintillator plastic layer overlying the optically clear substrate, and an optically clear polymer layer between the optically clear substrate and the scintillator plastic layer. The optically clear polymer layer can mechanically and optically couple the scintillator plastic layer to the optically clear substrate. Further, the clear polymer layer can be configured to substantially reduce the formation of cracks in the scintillator plastic layer due to thermal expansion, thermal contraction, or a combination thereof, of the scintillator device.

Abstract: A detector assembly includes a cap assembly configured to close an end of a detector housing that is configured to contain a sensor therein, the cap assembly has a radially expandable member configured to expand radially within the detector housing and lock the position of the cap assembly relative to the detector housing.

Abstract: A detector assembly includes a cap assembly configured to close an end of a detector housing that is configured to contain a sensor therein, the cap assembly has a radially expandable member configured to expand radially within the detector housing and lock the position of the cap assembly relative to the detector housing.

Abstract: A scintillator device includes an optically clear substrate, a scintillator plastic layer overlying the optically clear substrate, and an optically clear polymer layer between the optically clear substrate and the scintillator plastic layer. The optically clear polymer layer can mechanically and optically couple the scintillator plastic layer to the optically clear substrate. Further, the clear polymer layer can be configured to substantially reduce the formation of cracks in the scintillator plastic layer due to thermal expansion, thermal contraction, or a combination thereof, of the scintillator device.

Abstract: A scintillation article including a scintillation detector coupled to a photomultiplier tube (PMT) housing, and a PMT assembly disposed within the PMT housing. The scintillation article further includes a cap assembly selectively coupled to the PMT assembly, wherein upon moving the cap assembly from an assembled position in which the cap assembly is engaged with the housing to an extracted position in which the cap assembly is disengaged and removed from the housing, the cap assembly mechanically engages the PMT assembly and extracts the PMT assembly from the PMT housing.

Abstract: A detector assembly includes a cap assembly configured to close an end of a detector housing that is configured to contain a sensor therein, the cap assembly has a radially expandable member configured to expand radially within the detector housing and lock the position of the cap assembly relative to the detector housing.

Abstract: Embodiments of a radiation detector and subassemblies thereof are provided having a scintillator with a face and a reflector constructed and arranged to redirect a majority of light leaving the face of the scintillator at an angle within a range of 45 to 135 degrees compared to the direction in which the light was traveling when it left the face. In other embodiments a method is provided including receiving radiation into a scintillator having a face, producing light with the scintillator in response to the radiation, allowing at least a portion of the light to leave the face, and reflecting a majority of the light leaving the face at an angle within a range of 45 to 135 degrees compared to the direction in which the light was traveling when it left the face with a reflector. Other embodiments are directed to a reflector including a plurality of prisms having a first face and a second face with a barrier on the first face.

Abstract: A scintillation article including a scintillation detector coupled to a photomultiplier tube (PMT) housing, and a PMT assembly disposed within the PMT housing. The scintillation article further includes a cap assembly selectively coupled to the PMT assembly, wherein upon moving the cap assembly from an assembled position in which the cap assembly is engaged with the housing to an extracted position in which the cap assembly is disengaged and removed from the housing, the cap assembly mechanically engages the PMT assembly and extracts the PMT assembly from the PMT housing.

Abstract: Embodiments of a radiation detector and subassemblies thereof are provided having a scintillator with a face and a reflector constructed and arranged to redirect a majority of light leaving the face of the scintillator at an angle within a range of 45 to 135 degrees compared to the direction in which the light was traveling when it left the face. In other embodiments a method is provided including receiving radiation into a scintillator having a face, producing light with the scintillator in response to the radiation, allowing at least a portion of the light to leave the face, and reflecting a majority of the light leaving the face at an angle within a range of 45 to 135 degrees compared to the direction in which the light was traveling when it left the face with a reflector. Other embodiments are directed to a reflector including a plurality of prisms having a first face and a second face with a barrier on the first face.

Abstract: A system for allowing a shoe wearer to lean forwardly beyond his center of gravity by virtue of wearing a specially designed pair of shoes which will engage with a hitch member movably projectable through a stage surface. The shoes have a specially designed heel slot which can be detachably engaged with the hitch member by simply sliding the shoe wearer's foot forward, thereby engaging with the hitch member.