Apparatus for the customization of footwear, in particular sports footwear, having an element made of thermoplastic material is provided. A method for the customization of footwear using the apparatus is also provided. The apparatus has a heating assembly, for heating the thermoplastic element above a predetermined threshold temperature, and a shaping assembly, for shaping the thermoplastic element while its temperature is above the threshold value, which assemblies are both carried by a common frame. Due to the fact that the heating assembly and the shaping assembly are carried by a single, common frame, it is possible to ensure proper heating and subsequent shaping of the element made of thermoplastic material.

The invention relates to a method for producing a guiding rod for a pump for dispensing a fluid product. The rod includes a cylindrical body surmounted by a head. The method a plastic injection molding step to form the cylindrical rod. The method also includes a step of correcting the shape of an upper end of the rod so as to form the head by creating a shoulder at the level of the junction between the head of rod and body.

One example method for producing a component from organic sheets may comprise placing a first organic sheet and a second organic sheet next to one another to form a component preform, forming at least one overlapping joining zone by tacking the first and second organic sheets together with a connecting part in the form of a third organic sheet, transferring the component preform to a joining tool, using the joining tool to form a joined component by connecting the organic sheets through melting and compression in the overlapping joining zone, and consolidating the joined component at least in the zone of the overlapping joining zone.

A curing mold for manufacturing a turbomachine part made of composite material from a preform produced by draping pre-impregnated materials includes: a first body and a second body designed to be attached to each other and jointly defining a fixed air gap for receiving the preform and itself including a molding part of complementary shape with the part to be manufactured and intended to receive a portion to be molded of the preform, and at least one additional part located in a peripheral space of the air gap and intended to receive an additional portion forming an edge of the preform; a heating member designed to heat the preform in the air gap to a first temperature; at least one inflatable bladder housed in the first or second body, facing an additional part of the air gap; a member for injecting a pressurized fluid inside the bladder(s).

The present invention provides a method for producing a biocompatible implant and a corresponding biocompatible implant. The biocompatible implant (10) has an implant body (8) composed of a polyaryletherketone plastic, wherein the implant body (8) has at least one first porous section (12) and one second porous section (13), wherein the first porous section (12) and the second porous section differ with respect to their porosity.

The process includes a die comprising a bottom die (10) and a male part (20) able to close the cavity in such a way as to define a closed forming chamber (F). The bottom die (10) has an upper mouth that delimits the cavity (15), having an open upper surface substantially open in an upwards direction and a lateral surface internal of the cavity of the bottom die and forming an angle with the upper surface. The male part (20) has a central portion (21) able to close the surface of the cavity (15) and a peripheral edge able to adhere to the upper surface of the upper mouth, such as to realize a closing of the forming chamber only by means of contact along the upper surface, the peripheral edge lacking a vertical surface able to slide snugly contactingly with the lateral surface of the upper mouth (11). The process comprises: inserting a batch of non-spongy/foam thermoplastic material having a greater density than 0.9 Kg/dm3, in the solid state and in small pieces, into the cavity of the female component, supplying heat to the parts of the die, up to producing at least a partial melting of the batch located in the cavity of the die, nearing the two parts of the die to one another, by action of a thrust able to deform the batch in the at least partially molten state, the movement leading to a reduction of a distance between the upper mouth and the peripheral edge up to reciprocal contact thereof.

A component joining structure having: a first component provided with a joint portion for joining components together; a second component formed from a resin material in which fibers are oriented in multiple directions; and a joined portion that is integrally formed to the second component using a resin material, that is in close contact with the joint portion and is joined to the joint portion, and in which the fibers are oriented in multiple directions.

Disclosed is a method of manufacturing a bipolar plate for a redox flow battery. The method includes (a) mixing epoxy, a curing agent, and a conductive filler to manufacture a mixture, and (b) manufacturing the bipolar plate including a conductive filler composite manufactured by compression-molding the mixture.

A method can be used to attach a fabric member to a trim while forming a pattern in the fabric member. A trim has trim grooves formed in one side of the trim and a fabric member has a foam formed in one side of a skin material of the fabric member. A bonding member is coated to an outer surface of the foam and the fabric member is heated where the bonding member is coated. The heated fabric member is placed on the side of the trim where the trim grooves are formed. The fabric member is fixed to the trim by inserting edges of the fabric member into the trim grooves using insertion blades while pattern protrusions formed in a compression jig form a pattern by pressing the skin material of the fabric member.

A hot press assembly is provided that comprises an upper die plate having a first surface and a second surface opposite the first surface. The hot press assembly further includes a punch with an attachment surface that is positioned adjacent to the second surface of the upper die plate and a pressing surface that is positioned opposite the attachment surface. The hot press assembly also includes one or more conductive inserts that extend through the punch from the attachment surface to a predetermined distance away from the pressing surface, where each conductive insert has a thermal conductivity greater than a thermal conductivity of the punch. Methods of manufacturing a brake pad using the hot press assembly are also provided.