Abstract: A light fixture having an upper housing and a lower housing. A rotate-tilt mechanism is interposed between the two housings to permit the lower housing both to rotate and tilt relative to the upper housing.

Abstract: A light fixture having an upper housing and a lower housing. A rotate-tilt mechanism is interposed between the two housings to permit the lower housing both to rotate and tilt relative to the upper housing.

Abstract: A heat sink for a directional recessed lighting fixture, comprises a wedge-shaped rotatable inner heat sink 110 configured to fit within a hollow interior of an outer heat sink 130. The inner heat sink has an opening 120, for transmission of light from a light source 125 it houses. The inner heat sink includes a gimbal shaft 115 pivotally mounted to an inside wall 132 of the outer heat sink. The inner heat sink has a vertical surface 112 formed on one side, which is close to inside wall 132, when rotated in one direction (FIG. 1A) to direct light in a first direction. The inner heat sink has an angularly offset surface 114 formed on an opposite side, which is close to the inside wall, when rotated in an opposite direction (FIG. 1B) to direct light in a second direction.

Abstract: A recessed light fixture can include a movably adjustable light source and a thermal management system that includes a movable first heat sink, and a second heat sink. The first heat sink is thermally coupled to the adjustable light source, and is connected to move with the adjustable light source. The first heat sink includes a plurality of spaced apart first thermally conductive elements, such as fins. The second heat sink includes a plurality of spaced apart second thermally conductive elements, such as fins, which are interlaced between the first thermally conductive elements of the first heat sink. The interlaced thermally conductive elements increase surface area and heat transfer pathway(s) between the two heat sinks, while reducing physical contact, and thus friction, therebetween when movably adjusting the light source.

Abstract: A recessed lighting optical holder for a recessed lighting fixture, comprises a retainer 100 having a generally annular shape, including a resilient snap projection 105 formed on an inner circumference and resilient beam 130 supported at both ends on an outer circumference. The beam slides into engagement with a heat sink extension 122 on a bottom portion of a circular heat sink 110, when a top surface of the retainer is positioned against a bottom portion of the heat sink and the retainer is rotated with respect to the heat sink, to lock the retainer to the heat sink. An optic 120 has a generally conical shape, with a bottom portion surrounded by circular lip 125 that snaps into holding engagement with the snap of the retainer, to positively retain the optic. The holder is relatively simple to manufacture and is conveniently accessible for installation and occasional maintenance or replacement.

Abstract: An apparatus for releasably attaching a fiber optic module to equipment is disclosed. The apparatus comprises a latch configured to releasably attach the fiber optic module to equipment. The apparatus further comprises a pushrod configured to deactivate the latch from a back end of the fiber optic module, wherein the fiber optic module is released from the equipment. In one embodiment, the fiber optic module is a high-density fiber optic module. The pushrod may be further configured to maintain a position of the latch. The pushrod may also be further configured to be positioned in a groove disposed in a side of a main body of the fiber optic module, wherein the pushrod and the groove are configured to prevent the pushrod from binding while moving within the groove.

Abstract: A lighting mount assembly and method are disclosed to mount a recessed light fixture in an opening in a wall. The lighting mount assembly includes a mounting frame, and at least two adjustable brackets which are movable relative to the mounting frame. The mounting frame and the brackets cooperate to clamp a portion of the wall from opposing sides. Each of the brackets also includes a resilient member, such as a leg spring, which can be engaged to and disengaged from a portion of a light fixture, such as a groove, to hold or release the recessed light fixture in the wall opening.

Abstract: A recessed light fixture, mountable on a wall, includes a trim, heat sink, fasteners and springs. The trim has a trim frame with a trim opening for a light source. The heat sink includes an open end which opens into a cavity to house a portion of the light source, and an interior surface with an interior groove that extends around the interior surface. Each spring has a first end and an opposing second end. The first end of the springs is connected to the trim frame with a fastener. The second end of the springs is inserted through the open end of the heat sink until the second end snaps into and engages the interior groove to connect the heat sink and the trim frame. The second end is movable along the interior groove to allow rotational adjustment of the trim frame relative to the heat sink.

Abstract: An apparatus for releasably attaching a fiber optic module to equipment is disclosed. The apparatus comprises a latch configured to releasably attach the fiber optic module to equipment. The apparatus further comprises a pushrod configured to deactivate the latch from a back end of the fiber optic module, wherein the fiber optic module is released from the equipment. In one embodiment, the fiber optic module is a high-density fiber optic module. The pushrod may be further configured to maintain a position of the latch. The pushrod may also be further configured to be positioned in a groove disposed in a side of a main body of the fiber optic module, wherein the pushrod and the groove are configured to prevent the pushrod from binding while moving within the groove.

Abstract: Fiber optic cables seal and/or strain relief members and related assemblies and methods are disclosed. In one embodiment, an elongated member is provided that facilitates providing sealing and/or strain relief of a portion of multiple fiber optic cables not enclosed within a common outer cable jacket or sheath when disposed through the opening of the fiber optic terminal. In one embodiment, the elongated member includes a sealing portion configured to facilitate sealing of a fiber optic terminal opening when the multiple fiber optic cables are received in the sealing portion and the elongated member is disposed through the opening of the fiber optic terminal. In another embodiment, the elongated member includes a strain relief portion on a second end configured to receive and provide strain relief to the multiple fiber optic cables disposed inside the fiber optic terminal, when the elongated member is disposed through the fiber optic terminal opening.

Abstract: A heat sink for a directional recessed lighting fixture, comprises a wedge-shaped rotatable inner heat sink 110 configured to fit within a hollow interior of an outer heat sink 130. The inner heat sink has an opening 120, for transmission of light from a light source 125 it houses. The inner heat sink includes a gimbal shaft 115 pivotally mounted to an inside wall 132 of the outer heat sink. The inner heat sink has a vertical surface 112 formed on one side, which is close to inside wall 132, when rotated in one direction (FIG. 1A) to direct light in a first direction. The inner heat sink has an angularly offset surface 114 formed on an opposite side, which is close to the inside wall, when rotated in an opposite direction (FIG. 1B) to direct light in a second direction.

Abstract: A recessed lighting optical holder for a recessed lighting fixture, comprises a retainer 100 having a generally annular shape, including a resilient snap projection 105 formed on an inner circumference and resilient beam 130 supported at both ends on an outer circumference. The beam slides into engagement with a heat sink extension 122 on a bottom portion of a circular heat sink 110, when a top surface of the retainer is positioned against a bottom portion of the heat sink and the retainer is rotated with respect to the heat sink, to lock the retainer to the heat sink. An optic 120 has a generally conical shape, with a bottom portion surrounded by circular lip 125 that snaps into holding engagement with the snap of the retainer, to positively retain the optic. The holder is relatively simple to manufacture and is conveniently accessible for installation and occasional maintenance or replacement.

Abstract: A recessed light fixture can include a movably adjustable light source and a thermal management system that includes a movable first heat sink, and a second heat sink. The first heat sink is thermally coupled to the adjustable light source, and is connected to move with the adjustable light source. The first heat sink includes a plurality of spaced apart first thermally conductive elements, such as fins. The second heat sink includes a plurality of spaced apart second thermally conductive elements, such as fins, which are interlaced between the first thermally conductive elements of the first heat sink. The interlaced thermally conductive elements increase surface area and heat transfer pathway(s) between the two heat sinks, while reducing physical contact, and thus friction, therebetween when movably adjusting the light source.

Abstract: A recessed light fixture, mountable on a wall, includes a trim, heat sink, fasteners and springs. The trim has a trim frame with a trim opening for a light source. The heat sink includes an open end which opens into a cavity to house a portion of the light source, and an interior surface with an interior groove that extends around the interior surface. Each spring has a first end and an opposing second end. The first end of the springs is connected to the trim frame with a fastener. The second end of the springs is inserted through the open end of the heat sink until the second end snaps into and engages the interior groove to connect the heat sink and the trim frame. The second end is movable along the interior groove to allow rotational adjustment of the trim frame relative to the heat sink.

Abstract: A lighting mount assembly and method are disclosed to mount a recessed light fixture in an opening in a wall. The lighting mount assembly includes a mounting frame, and at least two adjustable brackets which are movable relative to the mounting frame. The mounting frame and the brackets cooperate to clamp a portion of the wall from opposing sides. Each of the brackets also includes a resilient member, such as a leg spring, which can be engaged to and disengaged from a portion of a light fixture, such as a groove, to hold or release the recessed light fixture in the wall opening.

Abstract: According to at least one exemplary embodiment a ferrule, comprises: (i) a bore extending from a rear of the ferrule to a front of the ferrule, wherein the bore is sized to receive an optical fiber and a buffer layer at one end face of the ferrule; and (ii) an end stop sized to engage the buffer layer and to contain the optical fiber within said ferrule. In some embodiments the ferrule includes an optical fiber situated within the bore.

Abstract: We describe an rspd(n/CRD) polypeptide, fragment, homologue, variant or derivative thereof for use in a method of treatment or prophylaxis of a disease. A method of treating an individual suffering from a disease or preventing the occurrence of a disease in an individual is also described, in which the method comprises administering to the individual a therapeutically or prophylactically effective amount of an rspd (n/CRD) polypeptide, fragment, homologue, variant or derivative thereof. Preferably, the rspd (n/CRD) polypeptide and nucleic acid comprise SEQ ID NO: 1 and SEQ ID NO: 2, respectively.

Abstract: The present disclosure provides fiber optic module housings and fiber optic modules that support fiber optic connections. In the present disclosure, a particular fiber optic module housing or fiber optic module includes a front side having a plurality rows of apertures for supporting fiber optic adapters, a rear side, a top side, a bottom side, and a base side. In one embodiment of the present disclosure, the fiber optic module housing or fiber optic module includes a plurality of ribs with each of the plurality of ribs being configured between two adjacent rows of the apertures on the front side to enhance the strength of the fiber optic module housing or fiber optic module, especially when it is made from plastic materials.

Abstract: A cable attachment assembly for sealing and retaining three flat cables entering a telecommunications closure provides a grommet having three radially arrayed passageways and a grommet washer having a flat portion and a raised portion for simultaneously maintaining compressive force to the grommet and mitigating creep of the grommet during thermal cycling.

Abstract: A strain relief device for securing three radially arrayed flat cables coming into a closure includes a body having three armatures extending radially. Each armature includes at least two cantilevered segments extending from the at least one armature in opposing directions. At least one cable may be received in a receiving area partially defined by the armature and the cantilevered segment. Compressive force acting on the strain relief device secures the cables in the receiving area relative to the strain relief device.