A method for manufacturing a mold for forming three-dimensional embossments on a surface of a shoe part, comprising: making a high-resolution template with a texture structure; using the high-resolution template to make a high-resolution pattern mold, forming a boundary wall inside the mold through the texture structure; defining, by the boundary wall, different regions provided for being filled with polyurethane compositions of different colors.

The present disclosure is directed methods for modifying molds of rotor blades of a wind turbine. In certain embodiments, the blade mold is constructed, at least in part, of a thermoplastic material optionally reinforced with a fiber material. In one embodiment, the method includes identifying at least one blade mold addition for the mold of the rotor blade and positioning the blade mold addition at a predetermined location of the mold of the rotor blade. Further, the blade mold addition is constructed, at least in part, of a thermoplastic material. Thus, the method includes applying at least one of heat, pressure, or one or more chemicals at an interface of the blade mold addition and the mold so as to join the blade mold addition to the mold. In further embodiments, the methods described herein are also directed repairing thermoplastic blade molds.

A method of producing an injection molding tool for molding an article includes producing a replica of the article using at least one of an additive manufacturing process, a solid freeform fabrication process, or a computer numerically controlled (CNC) process. A support block is configured to receive at least a portion of the replica and support the replica with at least one of an outer peripheral surface of the replica or an inner peripheral surface of the replica positioned at a spaced distance from a peripheral surface of the support block. The replica is supported inside the support block at the spaced distance, a ceramic resin material is introduced into the spaced distance and cured to form a ceramic shell insert, the insert is removed from the cavity, and the insert is positioned within the support block to form a part of a mold tool adapted for installation in a standard plastic injection molding machine.

A multi-part mold formed from a shell mold and a mold base provides efficiency in a manufacturing process. The shell mold may be formed on a positive mold article. The positive mold article may be formed from a rapid manufacturing process. The shell mold may then be formed on a surface of the positive mold article through a coating process that builds a relatively thin coating that results in a mold surface for molding an object represented, at least in part, by the positive mold article. The shell mold is then joined with a mold base effective to support the shell mold for the molding operation.

The present disclosure is directed methods for modifying molds of rotor blades of a wind turbine. In certain embodiments, the blade mold is constructed, at least in part, of a thermoplastic material optionally reinforced with a fiber material. In one embodiment, the method includes identifying at least one blade mold addition for the mold of the rotor blade and positioning the blade mold addition at a predetermined location of the mold of the rotor blade. Further, the blade mold addition is constructed, at least in part, of a thermoplastic material. Thus, the method includes applying at least one of heat, pressure, or one or more chemicals at an interface of the blade mold addition and the mold so as to join the blade mold addition to the mold. In further embodiments, the methods described herein are also directed repairing thermoplastic blade molds.

A method of producing an injection molding tool for molding an article includes producing a replica of the article using at least one of an additive manufacturing process, a solid freeform fabrication process, or a computer numerically controlled (CNC) process. A support block is configured to receive at least a portion of the replica of the article and support the replica with at least one of an outer peripheral surface of the replica or an inner peripheral surface of the replica positioned at a spaced distance from a peripheral surface of the support block. The replica is supported inside the support block at the spaced distance, a ceramic resin material is introduced into the spaced distance and cured to form a ceramic shell insert, the insert is removed from the cavity and sintered, and the insert is positioned within the support block to form a part of a mold tool adapted for installation in a standard plastic injection molding machine.

The present invention relates to a method of manufacturing a dental component, in particular a dental prosthesis or a partial dental prosthesis, by means of a dental furnace, comprising the following steps: (i) additively manufacturing, in particular by means of 3D printing, a model of the dental component from a model material on the basis of a virtual 3D model of the dental component; (ii) embedding the model in an investment material; (iii) removing the model from the investment material, in particular by heating or burning out, to obtain a negative mold of the model; (iv) inserting a raw material required for manufacturing the dental component into the negative mold; (v) producing the dental component in the negative mold; and (vi) removing the negative mold.

Simulated anatomical components, such as simulated vascular vessels, and systems including the same. Such a system includes a housing, a simulated anatomical component inside the housing, and a simulated anatomical abnormality within a passage of the simulated anatomical component, the simulated anatomical abnormality formed as a material of an anatomical mold used to form the simulated anatomical component that has been partially removed to form the passage.

In order to produce molded foam parts from foam systems, such as soft, semi-hard and integral foam, foaming molds are typically used, which are produced from different base materials, depending on the intended purpose and required output or service life. Molds for producing molded foam parts are produced from steel or aluminum. A negative or undesirable property during the production of molded foam parts is that the foam adheres to the foaming molds and can often only be removed mechanically. In order to prevent this, the disclosure proposes a mold insert for a molded part mold, comprising a cavity, wherein the mold insert can be arranged on the molded part mold such that a volume-reduced cavity is formed in the arranged state and the mold insert contributes to creating the shape of the material.

The present disclosure is directed methods for modifying molds of rotor blades of a wind turbine. In certain embodiments, the blade mold is constructed, at least in part, of a thermoplastic material optionally reinforced with a fiber material. In one embodiment, the method includes identifying at least one blade mold addition for the mold of the rotor blade and positioning the blade mold addition at a predetermined location of the mold of the rotor blade. Further, the blade mold addition is constructed, at least in part, of a thermoplastic material. Thus, the method includes applying at least one of heat, pressure, or one or more chemicals at an interface of the blade mold addition and the mold so as to join the blade mold addition to the mold. In further embodiments, the methods described herein are also directed repairing thermoplastic blade molds.