An apparatus and method for generating a three-dimensional object. The apparatus includes a build material area, at least one agent distributor with a fluid reservoir to store fluid agent and at least one fluid ejection die to selectively eject fluid agent in the build material area. A cooling system to remove heat from the at least one fluid ejection die has a heat sink. The at least one fluid ejection die is in thermal contact with the heat sink via the fluid agent of the fluid reservoir.

A method of moulding and apparatus therefor, in which a workpiece is preheated and/or post-cooled before and/or after a moulding process, allowing optimal use of the tool for high precision moulding operations.

A three-dimensional modeling apparatus includes a container, a carrier, and a blower unit. The container accommodates a curable composition. The carrier is configured to face an inner surface of the container and to have a variable distance with respect to the inner surface. The blower unit performs blowing between the carrier and the container. Further, in a case where the curable composition is cured in the container, the modeled object and the support portion, which connects the carrier and the modeled object, are formed. A wind from the blower unit is at least temporarily output toward at least one of the modeled object and the support portion.

A tool (100) comprises a plurality of layers (102, 104, 106) which are arranged to provide a thermally agile tool face (110) and to protect control circuitry and delicate components (150) from excessive temperatures.

An apparatus and method of manufacturing a display apparatus are provided. The apparatus for manufacturing a display apparatus includes a support; a first stage arranged on the support, the first stage being configured to move linearly and to receive a film member thereon, a second stage spaced apart from the first stage, and arranged on the support, the second stage being configured to move linearly and to receive a display panel thereon. an adhesive belt spaced from the support, the adhesive belt being configured to selectively adhere to the film member, a tension maintenance portion arranged on the support, the tension maintenance portion being configured to ascend and descend and to maintain a tension of the adhesive belt, and a pressing portion under the tension maintenance portion, the pressing portion being configured to move linearly and to press the adhesive belt toward one of the first stage and the second stage.

A curing device delivers localized curing energy along a pattern of curable material printed over a substrate. A curing head of the device can emit a column of curing energy along an emission axis and toward a substrate carrying the pattern of curable material, and a movement system provides relative movement between the curing head and the substrate so that the column of curing energy is guided along the pattern. Localized delivery of the curing energy enables printing and curing of printed materials on low temperature substrates such as thermoplastics.

An air-cooling mechanism includes an air guiding member and an air blowing member spaced from the air guiding member. An air-cooling area is formed between the air guiding member and the air blowing member. The air-cooling area has an air inlet and an air outlet. The air blowing member blows air towards the air guiding member to form a cooling airflow. The air guiding member includes air blocking plates and air deflecting plates connected to the air blocking plates and extending into the air-cooling area. The air blocking plates block the cooling airflow from flowing out of the air-cooling area, and an air outlet gap is formed between adjacent air blocking plates. The air deflecting plates block the cooling airflow in the air-cooling area from flowing towards the heating area and guide the cooling airflow towards the air outlet gap.

The light guide film product processing apparatus provided in the present invention relates to the field of light guide film processing, and includes an unwinding device for transmitting a first light guide film, a dot processing device, a cooling device, a cutting device, a waste collecting device, and a product collecting device that are sequentially installed along the transmission direction of the first light guide film, and a linkage controller; the dot processing device transfers dots on both sides of the first light guide film, the cooling device cools the first light guide film after dot processing, the cutting device cuts the cooled first light guide film, the waste collecting device is configured to wind a second light guide film, and the second light guide film is a remaining material after the first light guide film is cut into a light guide film product; and the included angle formed between the winding and transmission direction of the second light guide film and the transmission direction of the first light guide film is defined as , where >0. The linkage controller controls the starting and stopping of the dot processing device, the cooling device, and the cutting device by means of a program to implement the integrated production process of one-step forming of dots on both sides of a light guide film, light guide film product cutting, and remaining material recovery.

A fiber reinforced composite member molding apparatus includes a pair of molds for clamping prepreg formed of long carbon fibers impregnated with resin, induction heating coils for heating thermoplastic resin contained in the prepreg via the molds, and cooling passages for cooling the resin via the molds after the resin is melted, wherein the molds each have a design surface brought into contact with the layered prereg, the design surface being divided into a plurality of regions, and a plurality of cells provided along the design surface to be open at the back of the design surface and individually correspond to the regions of the design surface, the induction heating coils are arranged in the cells, and the cooling passages are formed in each of the molds to run along the design surface.

The present disclosure relates to a method of manufacturing a composite plastic component having a first section surrounded by a second section. The method includes positioning a first section on a mold, the mold having a curved top surface. The method includes heating a second section in the form of a frame, and positioning the second section about the first section on the mold. The method includes pressing the first and second sections on the curved mold to curve the first and second sections in conformance with the curve of the mold, and to attach the frame to the first section. The method includes removing the curved first section and frame from the mold, cooling the curved first section and frame, and allowing the first section to return from a curved shape to a planar shape.