A method for material handling and mold filling is provided which directs the flow of molten plastic material from an extruder and allocates the molten material to a plurality of nozzles through the use of independently operated, variable valves. The method therefore provides independent streams of molten plastic material having variable temperatures and flow rates or volumes to particular sections or regions of the mold. This independent temperature or flow of molten plastic material facilitates the complete, rapid and accurate filling of the molds, reducing turbulence and other temperature or flow-related imperfections in the finished components. A method of using a multiphase material handling system is also disclosed for expeditious sequential and simultaneous filling and pressing of the mold and extracting the completed component from the system.

A material handling and mold filling system is provided which directs the flow of molten plastic material from an extruder and allocates the molten material to a plurality of nozzles through the use of independently operated, variable valves. The system therefore provides independent streams of molten plastic material having variable temperatures and flow rates or volumes to particular sections or regions of the mold. This independent temperature or flow of molten plastic material facilitates the complete, rapid and accurate filling of the molds, reducing turbulence and other temperature or flow-related imperfections in the finished components. A multiphase material handling system is also disclosed for expeditious sequential and simultaneous filling and pressing of the mold and extracting the completed component from the system.

A method for producing a fiber-reinforced resin molded body, including heating a fiber-reinforced resin molded body precursor containing thermoplastic resin as matrix resin to soften it and molding it in a molding die, where temperature unevenness between the inside and surface of the fiber-reinforced resin molded body precursor can be reduced. The method includes a first step of storing a fiber-reinforced resin molded body precursor containing thermoplastic resin as the matrix resin and containing conductive fibrous materials therein into a heating furnace with heating apparatuses while holding the precursor using a pair of holding tools, which also function as electrodes, and then actuating the heating apparatuses while supplying current to the precursor from the electrodes, thereby softening the precursor; and a second step of transferring the softened precursor to a molding die using the holding tools, and molding a fiber-reinforced resin molded body in the molding die.

A rotor for a rotary press comprising a die plate having die bores and upper punches and lower punches assigned in pairs to the die bores, circulating synchronously with the die plate An upper punch receiver is configured to axially guide the upper punches and a lower punch receiver is configured to axially guide the lower punches. An upper control cam is configured to control the axial movement of the upper punches passing through the upper control cam and a lower control cam is configured to control the axial movement of the lower punches passing through the lower control cam.

A pellet press machine, comprises a die block assembly for receiving powder to be compacted, and a press assembly for compacting the powder, the die block assembly laterally movable along a linear horizontal axis between the filling location at which an array of dies are filled with the powder to be pressed at the pressing location in which the powder in dies is pressed to form pellets. The filling assembly includes an auger driving by a motor to force the powder directly into dies. The auger further has a sharp edge sits right above the dies to force the powder directly into dies and the sharp edge scrapes the top surface of the dies so as to allow the high degree accuracy of filling dose for each die. With this filling assembly, the pellet press machine can product high density and small diameter pellet with high density and sticky density powder.

A method and production line are provided for producing sheet products by thermopressing raw materials from thermoplastic plastics and may be used for manufacturing substantially flat products. The method includes thermopressing the raw materials from thermoplastic plastics under pressure to produce in at least one press, and subsequent cooling under pressure of a semi-finished sheet product in at least one other press. A mold with detachable parts may be used, starting from dosing and feeding the raw materials to thermopressing and cooling, and ending with removing a finished sheet product. A production line for producing the sheet products by thermopressing the raw materials from thermoplastic plastics is also provided.

A transfer molding method includes supplying melted resin to a first metallic mold, conveying the first metallic mold onto which the resin was supplied to a position opposing a second metallic mold, performing transfer molding by sandwiching the resin between the two metallic molds, and cooling the resin after performing transfer molding. The performing transfer molding includes discharging residual air that remains in a recess via a groove portion.

A system/apparatus and method for producing a vehicle interior component is disclosed. A vehicle interior component produced from a material comprising fibers is also disclosed. The method of making a component for use in a vehicle from a material comprising fibers may use a system/apparatus comprising a base section and a section creating a cavity for supply of fibers and a section for compression forming of a shape for the component. The method may comprise the steps of heating the base section to a first temperature; supplying a material comprising fibers between the base section and the section creating the cavity for fibers; activating at least some of the fibers of the material; and forming the material comprising fibers into the shape between the base section and the section for compression forming. The formed component from a material comprising fibers may provide properties (e.g. thickness, density, mass, strength, shape, form, contour, integrity, orientation, etc.) designed/intended for use in a vehicle interior; the formed component may comprise a uniform section providing consistent properties through the component and/or may comprise multiple subsections/portions that provide variations in properties between subsections/portions in the component designed/intended for use in the vehicle interior.

The invention relates to a method for the production of form parts from multi-component reactive plastic material, especially from polyurethane, wherein a plurality of moulds are moved by means of mould carriages (1) at least temporarily along a closed, preferably oval, production line (2). To allow a simple and quick import and export of mould carriages in the respectively out of the production line the invention proposes that the mould carriages (1) are provided with rolls (3) and are moved on a stationary ground (4) by the same and that a plurality of supply carriages (6) are arranged along the closed production line (2) at a conveying element (5), which supply carriages (6) are moved by means of the conveying elements (5), wherein a mould carriage (1) is approached to a not occupied supply carriage (6) and is coupled with the same to introduce the mould carriage (1) into the production line (2), wherein for the movement along the production line (2) the mould carriage (1) is guided and moved by the supply carriage (6) in a coupled state between the mould carriage (1) and the supply carriage (6) and wherein the mould carriage (1) is decoupled from the supply carriage (6) and is moved away from the production line (2) for taking the mould carriage (1) out of the production line (2), wherein here the mould carriage (1) is moved with its roils (3) on the stationary ground (4). Furthermore, the invention relates to a respective device.

A compression molding apparatus contains: a base, a carrying platform, at least one projector, a pressing mold, and a heater. The base includes a material feeding zone and a molding zone. The carrying platform moves into the molding zone from the material feeding zone, and when it is located in the material feeding zone, plural connecting pieces are stacked on the carrying platform. The at least one projector is fixed above the material feeding zone to project plural positioning images on the carrying platform, wherein each connecting piece is stacked on the carrying platform by aligning with each positioning image. The pressing mold is arranged above the molding zone, and when the carrying platform moves into the molding zone, the pressing mold moves to press the each connecting piece on the carrying platform. The heater is mounted on the base to heat the each connecting piece on the carrying platform.