Abstract: A light source device, including an alternating current high-pressure mercury lamp having a pair of electrodes opposite each other with a spherical light-emitting part having at least 0.15 mg/mm3 of mercury and halogen at 10?6 ?mol/mm3 to 10?2?mol/mm3, and cylindrical hermetically sealed parts extending from both ends of the light-emitting part. External leads protrude from the ends of the light-emitting part for receiving alternating current. A reflecting mirror having a concave reflecting part surrounds the light-emitting part and a cylindrical neck part. An adhesive for securing the mercury lamp and the reflecting mirror fills a periphery of the hermetically sealed parts of the mercury lamp. The distance L2 (mm) from a center in between the electrodes to the adhesive is set at a value of one of 16 mm or less and 20 mm or greater.

Abstract: A light pipe assembly includes a lamp assembly and a light pipe. The lamp assembly has a housing that holds a light source configured to emit light. The light pipe is elongated between an attachment end and an opposing distal end. The attachment end is received in the housing of the lamp assembly. The light pipe receives light emitted by the light source. Additionally, the light pipe includes surface elements that are configured to permit the light to emanate from the light pipe between the attachment and distal ends. The surface elements are arranged in a pattern that provides a predetermined distribution of light emanating from the light pipe.

Abstract: A light pipe is configured to provide a wide effective angle of illumination while simultaneously providing a substantially uniform distribution of light along a length of the light pipe. One or more reflective surfaces not aligned with an inner surface are disposed such that when at least one reflective surface is illuminated, light is emitted from the light pipe at one or more specified angles of light emission. A plurality of reflection points are formed on the inner surface to cause the specified angles when at least one of the reflective surfaces is illuminated. A light pipe is also provided having one or more exterior protrusions configured to function as a secondary light source. A second portion of an outer surface of the light pipe has a radius of curvature which differs from the radius of curvature of the first portion of the outer surface.

Abstract: A light pipe is configured to provide a wide effective angle of illumination while simultaneously providing a substantially uniform distribution of light along a length of the light pipe. One or more reflective surfaces not aligned with an inner surface are disposed such that when at least one reflective surface is illuminated, light is emitted from the light pipe at one or more specified angles of light emission. A plurality of reflection points are formed on the inner surface to cause the specified angles when at least one of the reflective surfaces is illuminated. A light pipe is also provided having one or more exterior protrusions configured to function as a secondary light source. A second portion of an outer surface of the light pipe has a radius of curvature which differs from the radius of curvature of the first portion of the outer surface.

Abstract: An extra-high pressure discharge lamp, comprises an optical transparent light emitting section, sealing sections connected to the light emitting section, a pair of electrodes which face each other in the light emitting section, wherein one of the electrodes having a thick portion, a thin portion and an intermediate portion which is formed between the thick portion and the thin portion, wherein 0.15 mg/mm3 of mercury is enclosed in the light emitting portion, and wherein the number of crystal grains which exist on a cross section perpendicular to an axis of the one of the electrodes is three.

Abstract: A lamp assembly for mounting to a panel includes a housing assembly having a lamp section holding a light source assembly, and a lens section extending from the lamp section. The lens section has a lens through which light from the light source assembly is directed, wherein the lens is configured to be received within a mounting opening of the panel. A locking tab extends from an outer surface of the lens section, wherein the locking tab is configured to be received within the mounting opening of the panel and wherein the locking tab is configured to engage a locking surface to secure the housing assembly relative to the panel.

Abstract: Light source device, including an alternating current high-pressure mercury lamp having a pair of opposed electrodes within a spherical light-emitting part containing at least 0.15 mg/mm3 of mercury and 10?6 ?mol/mm3 to 10?2 ?mol/mm3 of halogen, and cylindrical hermetically sealed portions extending from both ends of the light-emitting part. External leads protrude from the ends of the light-emitting part. A reflecting mirror has a concave reflecting part surrounding the light-emitting part and a cylindrical neck part. An adhesive fills a periphery one of the hermetically sealed portions in the area of the external leads in a manner fulfilling the relationship L1/R?0.5 where L1 (mm) is the length along the hermetically sealed portion filled with an adhesive and R (mm) is the diameter of the hermetically sealed portions. Feed wires connect to the external leads and openings for the feed wires can be formed in the reflecting part with flexible tubes between them.

Abstract: A light source device, including an alternating current high-pressure mercury lamp having a pair of electrodes opposite each other with a spherical light-emitting part having at least 0.15 mg/mm3 of mercury and halogen at 10?6 ?mol/mm3 to 10?2?mol/mm3, and cylindrical hermetically sealed parts extending from both ends of the light-emitting part. External leads protrude from the ends of the light-emitting part for receiving alternating current. A reflecting mirror having a concave reflecting part surrounds the light-emitting part and a cylindrical neck part. An adhesive for securing the mercury lamp and the reflecting mirror fills a periphery of the hermetically sealed parts of the mercury lamp. The distance L2 (mm) from a center in between the electrodes to the adhesive is set at a value of one of 16 mm or less and 20 mm or greater.

Abstract: A lighting assembly is disclosed. The lighting assembly includes a lamp assembly having a lamp and a transparent ring that has at least two smooth surfaces that are inwardly reflective and at least one diffusive surface. The lamp assembly and the transparent ring are configured and arranged with respect to one another to deflect light from the lamp in each of a clockwise and a counterclockwise direction in a loop around the transparent ring to achieve a level of total internal reflection.

Abstract: A light emitting element assembly for mounting to a panel. The assembly includes a housing configured to receive a light emitting element therein. In addition, the assembly includes a bezel having at least one latch arm extending from a surface of the bezel, wherein the bezel is configured to detachably engage a surface within the housing. The bezel is further configured to retain the assembly in a position relative to the panel. The assembly also includes a mounting structure having the light emitting element operably mounted therein.

Abstract: A light emitting element assembly for mounting to a panel. The assembly includes a housing configured to receive a light emitting element therein. In addition, the assembly includes a bezel having a first set of latch arms and a second set of latch arms extending from a surface of the bezel. The bezel is configured to retain the assembly in a position relative to the panel. The assembly also includes a mounting structure having the light emitting element operably mounted therein. The first set of latch arms include at least one latch arm configured to detachably engage a surface within the housing and the second set of latch arms include at least one latch arm configured to detachably engage a surface of the panel.

Abstract: A wireless information recording medium including a reversible thermal recording medium, a cushioning material layer provided on the reversible thermal recording medium, an information recording section including an information recording element and an antenna circuit configured to receive and transmit information for the information recording element, and a support layer configured to support the information recording section, and provided on the cushioning material layer. The support layer is stacked on the cushioning material layer and the cushioning material is stacked on the reversible thermal recording medium in a step-wise configuration.

Abstract: The present invention relates to a refill container, that holds and protects an internal tray filled with a cosmetic material. The refill container that holds the internal tray filled with the cosmetic material is made up of a mounting portion and an engaging portion. The mounting portion has a structure to be mounted over the internal tray in such a manner as to cover an exposed surface of the cosmetic material. The mounting portion has a lid portion that faces the exposed surface and protects the exposed surface in a mounted state and a holding portion that holds the internal tray in such a manner that the internal-tray bottom surface of the internal tray is exposed in the mounted state. Further, in the mounted state of the internal tray being mounted in the mounting portion, the engaging portion catches the internal tray in such a manner as to prevent the internal tray from being disengaged from the mounting portion.

Abstract: A lamp and socket assembly includes a lamp assembly including a lamp holder having an end panel, and a housing having a lamp side and a wire side. The lamp side includes a lamp receptacle. The lamp holder is received in the lamp receptacle. A channel is formed in the lamp receptacle. The channel includes opposed side walls, and each side wall has an engagement surface. The engagement surfaces engage side edges of the end panel to retain the lamp assembly in the lamp receptacle.

Abstract: A light pipe is configured to provide a wide effective angle of illumination while simultaneously providing a substantially uniform distribution of light along a length of the light pipe. One or more reflective surfaces not aligned with an inner surface are disposed such that when at least one reflective surface is illuminated, light is emitted from the light pipe at one or more specified angles of light emission. A plurality of reflection points are formed on the inner surface to cause the specified angles when at least one of the reflective surfaces is illuminated. A light pipe is also provided having one or more exterior protrusions configured to function as a secondary light source. A second portion of an outer surface of the light pipe has a radius of curvature which differs from the radius of curvature of the first portion of the outer surface.

Abstract: The present invention relates to a refill container that holds and protects an internal tray filled with a cosmetic material. The refill container that holds the internal tray filled with the cosmetic material is made up of a mounting portion and an engaging portion. The mounting portion has a structure to be mounted over the internal tray in such a manner as to cover an exposed surface of the cosmetic material. The mounting portion has a lid portion that faces the exposed surface and protects the exposed surface in a mounted state and a holding portion that holds the internal tray in such a manner that the internal-tray bottom surface of the internal tray is exposed in the mounted state. Further, in the mounted state of the internal tray being mounted in the mounting portion, the engaging portion catches the internal tray in such a manner as to prevent the internal tray from being disengaged from the mounting portion.

Abstract: A light source device which can also advantageously control the growth of the projection using the DMD type is achieved in a light source device which has an ultrahigh pressure dicharge lamp) in which the silica glass discharge vessel is filled with greater than or equal to 0.15 mg/mm3 mercury and bromine; a feed device; an oval reflector; and a color wheel by the electrode on the side of the opening of the oval reflector of the discharge lamp having an increased diameter, and the relation 0./06<W/I2<0.96 between the volume W (mm3) of the tip area with increased diameter and the current value I being satisfied.

Abstract: A lamp socket includes a housing having a lamp receiving side and a wire receiving side. The lamp receiving side includes a lamp receptacle configured to receive the lamp assembly when inserted in a lamp insertion direction. The wire receiving side includes a contact receptacle. A contact is mounted in the contact receptacle in the housing. The contact includes a mating end for electrically and mechanically engaging the lamp assembly. The mating end includes a first side wall and an end wall joined to one another along a bend that extends along a longitudinal axis of the contact. The longitudinal axis extends in a direction non-perpendicular to the insertion direction. The first side wall has a planar surface that extends along a vertical plane. The planar surface engages the lamp assembly continuously along a length of the planar surface in a direction parallel to the longitudinal axis of the contact and to the lamp insertion direction.

Abstract: Three-dimensional portions are made of the same PET resin as are flat portions, only thicker. That is, the three-dimensional portions are more rigid than the flat portions. The three-dimensional portions are bonded to the flat portions at cutout portions thereof by a thermo-compression sheet or adhesive tape or the like. Connecting portions are made of PET resin that is thinner than the PET resin of which the flat portions are made. A phase insulation paper is provided in which the connecting portions are bonded at both ends to the flat portions, and an electric motor is provided in which the phase insulation paper is inserted between stator coils.

Abstract: A lamp and socket assembly includes a lamp assembly including a lamp holder having an end panel, and a housing having a lamp side and a wire side. The lamp side includes a lamp receptacle. The lamp holder is received in the lamp receptacle. A channel is formed in the lamp receptacle. The channel includes opposed side walls, and each side wall has an engagement surface. The engagement surfaces engage side edges of the end panel to retain the lamp assembly in the lamp receptacle.