A method of fabricating a casting, the method including applying a substrate to a sacrificial mold, the sacrificial mold including a shaped non-planar receiving surface to receive the substrate and provide a casting of the substrate having a shaped structure corresponding to the receiving surface; and subjecting the sacrificial mold and casting to freeze drying conditions and sublimating the sacrificial mold from the casting to form a cast article including the shaped non-planar structure.

A forming device includes: a forming jig extending along an axial direction; a forming die having a shape corresponding to a top part region and a wall part region of the forming jig; and a movement mechanism that moves the forming die so as to approach a bottom part region along a height direction HD. The forming die includes: a body part; a plate-shaped forming part that is attached to the body part so as to be swingable around a swing shaft; and a pressurization part that generates a pressurization force which causes a distal end part of the forming part to push a layered body against the wall part region when the forming die is moved by the movement mechanism so as to approach the bottom part region. In accordance with the distal end part, the part causes a contact surface to contact a region of the layered body.

A microneedle structure, a manufacturing method therefor, and a manufacturing apparatus therefor are presented. The microneedle structure manufacturing method according to one embodiment of the present invention comprises the steps of: a) injecting, into a lower mold comprising a microneedle intaglio, a polymer solution containing a biocompatible polymer; and b) coupling a shape control mold, which comprises a protrusion, to the lower mold such that one end of the protrusion of the shape control mold is impregnated with the biocompatible polymer solution injected into the microneedle intaglio.

A method of manufacturing a fluidic device includes molding either one of the base member and the valve part with a first mold; and molding the other one of the base member and the valve part with a second mold with respect to the molded base member or the molded valve part.

A method of manufacturing a fluidic device includes molding either one of the base member and the valve part with a first mold; and molding the other one of the base member and the valve part with a second mold with respect to the molded base member or the molded valve part.

This document describes systems and processes for forming synthetic molded slabs, which may be suitable for use in living or working spaces (e.g., along a countertop, table, floor, or the like).

This document describes systems and processes for forming synthetic molded slabs, which may be suitable for use in living or working spaces (e.g., along a countertop, table, floor, or the like).

A method of manufacturing a microstructure comprises printing a positive mold structure, filling the positive mold structure with a second material to form an elastically deformable negative mold structure, filling the negative mold structure with a third material to form the microstructure, and releasing the microstructure from the negative mold structure. Advantageously, the negative mold structure can be stretched to facilitate the release of the microstructure. For example, the microstructure comprises a chamber with capped micropillars for the generation and/or analysis of muscle tissue.

The device relates to a device for producing plastic bodies wherein the device comprises a photopolymer curing unit comprising at least one radiation source with a selected radiation spectrum or spectrums for curing of light hardening photopolymer, a mold which mold is partially or wholly comprised of light transmissive material which material allows the passage of radiation of selected spectrum or spectrums for curing of light hardening photopolymers, and a fixture for securing and rotating the mold along one or more axis.

Light hardening photopolymer is introduced into the cavity of the mold and exposed to a selected radiation spectrum or spectrums for curing of light hardening photopolymers through the mold light transmissive material thereby hardening and curing the light hardening photopolymer whereupon the cured light hardening photopolymer is removed from the mold and the process repeated.

The device permits the production of photopolymer molded bodies or photopolymer coated bodies in a continuous or discontinuous process.

The device relates to a device for producing plastic bodies wherein the device comprises a photopolymer curing unit comprising at least one radiation source with a selected radiation spectrum or spectrums for curing of light hardening photopolymer, a mold which mold is partially or wholly comprised of light transmissive material which material allows the passage of radiation of selected spectrum or spectrums for curing of light hardening photopolymers, and a fixture for securing and rotating the mold along one or more axis.

Light hardening photopolymer is introduced into the cavity of the mold and exposed to a selected radiation spectrum or spectrums for curing of light hardening photopolymers through the mold light transmissive material thereby hardening and curing the light hardening photopolymer whereupon the cured light hardening photopolymer is removed from the mold and the process repeated.

The device permits the production of photopolymer molded bodies or photopolymer coated bodies in a continuous or discontinuous process.