An assembly for producing cabinet doors including a CNC machine provided with a porous worktable, means for positioning workpieces thereon, means for applying a vacuum to such porous worktable for adhering such workpieces thereto and means for machining such workpieces adhered to such worktable; and means for thermally deforming a thermally pliable foil to laminate such workpiece.

A method for thermoforming an article includes extruding a sheet of material, conditioning the sheet with a roller, thermoforming the sheet to provide a web, and cutting the web to provide the article.

A three-dimensional object manufacturing system includes a three-dimensional structural object manufacturing device, a packing material manufacturing device, and a control device. The three-dimensional structural object manufacturing device manufactures a three-dimensional object based on molding data of the three-dimensional object. The packing material manufacturing device manufactures a shock absorbing material that is disposed at a periphery of the three-dimensional object and that is detachably attached to the three-dimensional object. The control device calculates the shape of the shock absorbing material based on the molding data of the three-dimensional object.

The invention relates to a system and method for forming sleeved containers. The system includes a conveyor for transporting a row of containers, a sleeving unit for arranging sleeves around containers and a heat oven for attaching the sleeve around the container by heat shrinking. The conveyed containers are provided with a sleeve and the sleeved container is transported in the oven to allow the sleeve to shrink. According to the invention, part of the sleeve is removed using a removal unit. The part is removed after heat shrinking. Removing the part allows to uncover part of the container otherwise covered by sleeve.

An existing acoustic honeycomb panel having a radius of curvature is cut into segments that have longitudinal and lateral sides that extend between the edges of the honeycomb. The segments are bonded together along their longitudinal or lateral sides to form a segmented acoustic honeycomb in which the radius of curvature is different from the radius of curvature of the original acoustic honeycomb panel. The shape of the longitudinal or lateral sides of the segments and the thickness of the adhesive bond can be controlled to provide segmented acoustic honeycomb panels that are tightly curved and which are suitable for use in demanding noise damping applications, such as jet engine nacelles.

A method of making an indexed prepreg composite sheet is disclosed. The method comprises forming discrete regions in a resin film layer. The discrete regions are arranged in an indexing pattern. The method also includes forming a precursor prepreg composite sheet by impregnating a fiber reinforcement with the resin film layer having a viscosity. The discrete regions of the resin film layer form non-impregnated regions of the precursor prepreg composite sheet. The method additionally includes replacing the non-impregnated regions of the precursor prepreg composite sheet with indexing openings.

A method and apparatus for processing a formable material having at least first and second relatively repositionable units. The first unit has a sheet die, with the second unit having a rotary drum with a peripheral forming surface for receiving flowable material from the sheet die. The first and second units can be selectively changed between an operating relationship and a setup relationship, with the latter causing at least one space to be defined/enlarged and within which an operator can maneuver to gain access to a region of at least one of the first and second units. With the first and second units in the operating relationship, moldable sheets can be processed by causing the moldable sheets to be applied, and conformed, to the peripheral forming surface on the rotary drum.

A system (100) for making a prepreg composite sheet (300) comprising contoured charges (308) comprises first means (102) for forming precursor outline regions (206) in a resin film layer (200). The system (100) also comprises second means (106) for impregnating a fiber reinforcement (220), comprising fibers (222), with the resin film layer (200), comprising the precursor outline regions (206), to form the prepreg composite sheet (300). The prepreg composite sheet (300), as so formed, comprises non-impregnated outline regions (310) that define the contoured charges (308). The non-impregnated outline regions (310) in the prepreg composite sheet (300) correspond to the precursor outline regions (206) in the resin film layer (200). The system (100) further comprises third means (104) for guiding the fiber reinforcement (220) and the resin film layer (200) to the second means (106). The resin film layer (200) comprises the precursor outline regions (206) formed by first means (102).

A gripper is disclosed for a draping frame having a gripper chassis and at least two opposing mutually movable gripper jaw elements for gripping a film element. The gripper jaw elements are provided on a gripper head part of the gripper. The gripper head part of the gripper is movably mounted, at least with one degree of freedom, relative to the gripper chassis.

A rubber product having a printed surface includes a base and a printed surface layer on the base. The printed surface layer is printed on a plate beforehand by way of printing using inks containing a rubber material. The plate and the printed surface layer are pre-heated for the printed surface layer to be formed on the plate. The plate and a natural rubber material are simultaneously placed inside a die assembly and are heated and pressed for the natural rubber material to form a base through a sulfurization process of the natural rubber material. The printed surface layer and the base are fused during the sulfurization process to form the rubber product with the printed surface ensuring better resistance against abrasion and corrosion.