Abstract: A seating unit includes a generally horizontal seat portion and a generally upright back portion. The back portion includes a flexible membrane or mesh extending in first and second directions. The mesh defines a generally upright user support surface. At least a portion of the mesh comprises an auxetic material having a negative Poisson's ratio whereby stretching of the auxetic portion of the mesh in at least one of the first and second directions causes the mesh to expand in the other of the first and second directions.

Abstract: An adhesive melter includes an inlet port, an outlet port, and an interior configured to heat and hold adhesive pellets. The melter includes a lid for providing access to the interior and the outlet port communicates with the interior. An intake conduit is coupled to the inlet port and is configured to deliver forced air and adhesive pellets to the interior. An exhaust conduit is coupled to the outlet port and is configured to remove the forced air from the interior and to receive a filter for trapping particles of the adhesive pellets borne by the forced air. The outlet port and the inlet port are non-concentric but closely spaced and centrally located on the lid and the outlet port is spaced from the inlet port so as to cause the forced air to travel in a generally U-shaped path within the interior of the melter.

Abstract: A liquid dispensing module includes a dispenser body assembly, a flexible seal, a needle, and an actuator. The dispenser body assembly includes a liquid inlet, a discharge outlet, and a flow channel including a valve seat between the inlet and outlet. The flexible seal engages the dispenser body assembly and includes a downstream end. The needle includes an enlarged portion engaging and retaining the downstream end of the flexible seal to place the flexible seal in lengthwise compression between the enlarged portion and the dispenser body assembly. The needle also includes a valve element that moves between open and closed positions. The flexible seal prevents liquid from leaking out of the flow channel.

Abstract: A thermally insulated applicator for applying heated thermoplastic liquid includes an applicator body including a thermoplastic liquid supply passage and a heating element for supplying heat to liquid in the supply passage. A dispensing valve module is coupled in thermal contact with the applicator body and includes an outlet in fluid communication with the liquid supply passage. A cover assembly is formed of a thermally insulating plastic and includes first, second and third sides, the first and second sides of the cover assembly respectively covering the first and second sides of the applicator body, and the third side of the cover assembly covering the third side of the dispensing valve module. The first and second sides of the cover assembly each include a plurality of point contact projecting elements respectively supporting the first and second sides of the cover assembly on the first and second sides of the applicator body.

Abstract: A thermally insulated applicator for applying heated thermoplastic liquid includes an applicator body including a thermoplastic liquid supply passage and a heating element for supplying heat to liquid in the supply passage. A dispensing valve module is coupled in thermal contact with the applicator body and includes an outlet in fluid communication with the liquid supply passage. A cover assembly is formed of a thermally insulating plastic and includes first, second and third sides, the first and second sides of the cover assembly respectively covering the first and second sides of the applicator body, and the third side of the cover assembly covering the third side of the dispensing valve module. The first and second sides of the cover assembly each include a plurality of point contact projecting elements respectively supporting the first and second sides of the cover assembly on the first and second sides of the applicator body.

Abstract: A liquid dispensing module includes a dispenser body assembly, a flexible seal, a needle, and an actuator. The dispenser body assembly includes a liquid inlet, a discharge outlet, and a flow channel including a valve seat between the inlet and outlet. The flexible seal engages the dispenser body assembly and includes a downstream end. The needle includes an enlarged portion engaging and retaining the downstream end of the flexible seal to place the flexible seal in lengthwise compression between the enlarged portion and the dispenser body assembly. The needle also includes a valve element that moves between open and closed positions. The flexible seal prevents liquid from leaking out of the flow channel.

Abstract: In various embodiments, the present disclosure provides a silicate material and a method for forming such material. According to a particular embodiment of the method, water is added to reactants including a metal salt, an oxidizer, a silicon source and a fuel source. The reactants and water are heated at a temperature between about 800° C. and about 1200° C. Heating initiates a combustion reaction and produces a nanocrystalline powder. In more particular examples of the method, the nanocrystalline powder is subsequently densified, such as by sintering. The material formed by the method is, in some cases, a lutetium-containing material suitable for use as a scintillator.

Abstract: An adhesive melter includes an inlet port, an outlet port, and an interior configured to heat and hold adhesive pellets. The melter includes a lid for providing access to the interior and the outlet port communicates with the interior. An intake conduit is coupled to the inlet port and is configured to deliver forced air and adhesive pellets to the interior. An exhaust conduit is coupled to the outlet port and is configured to remove the forced air from the interior and to receive a filter for trapping particles of the adhesive pellets borne by the forced air. The outlet port and the inlet port are non-concentric but closely spaced and centrally located on the lid and the outlet port is spaced from the inlet port so as to cause the forced air to travel in a generally U-shaped path within the interior of the melter.