Abstract: A reusable surgical implement is provided that is formed of a core positioned within an enclosure. The core is formed of a suitable rigid, and optionally flexible material to enable the implant to conform to the desired use for the implement in a surgical procedure. The material forming the enclosure is also stretchable and flexible to accommodate the configuration and/or any flexing of the core, and is biologically inert to enable the implant to be sterilized after use for use in subsequent surgical procedures while protecting the material forming the core. The enclosure can be molded around the core in separate portions or components using multiple molding steps to form an enclosure with the desired attributes.

Abstract: A network of microfibers are fabricated with a core-shell construction from sustainable materials, where the core includes a phase-change material, such as coconut oil, and the shell includes a biomass, such as cellulose. The microfibers are made via a wet-wet electrospinning process utilizing a coaxial spinneret with an inner conduit and an outer conduit. The biomass and the phase-change material are coaxially extruded into a coagulation bath including a mixture of ethanol and water. The collected microfibers exhibit a beaded structure of PCM aggregates and biomass connecting regions between the aggregates and are effective to aid in the thermoregulation of the immediate environment surrounding the network. The microfibers are suitable for use in a variety of sustainable products such as wearable thermoregulating textiles, wall/ceiling panels, insulation, packaging material, and more.

Abstract: A forming device and a preparation method of a graphite crucible are provided. The forming device includes: a support frame, including a base; a male die, disposed on the support frame and far away from the base and movable reciprocally in a vertical direction relative to the support frame; a crucible mouth pressing member, disposed on the support frame, correspondingly disposed on a side of the male die close to the base, movable reciprocally in the vertical direction relative to the support frame, and defining an opening part allowing the male die to pass therethrough; and a female die, disposed on the base and corresponding to the male die, and configured to accommodate crucible paste. The male die, the crucible mouth pressing member and the female die are configured to cooperatively form the crucible paste into the graphite crucible.

Abstract: A method for manufacturing cladding elements for use in construction, including a composite cement-based structure, including an elastically deformable support element having a first surface, a second surface and a plurality of spacer elements having an elongated shape positioned between the first and second surface to realize a plurality of interconnected cavities. The method further provides preparing a substantially fluid and water-based cementitious composition and introducing the substantially fluid cementitious composition into the support element to obtain a composite structure in a deformable state. After this, part of the fluid cementitious composition is removed from the support element, to eliminate the excess fluid cementitious composition and position the deformable composite structure in a forming device.

Abstract: Provided are ceramic foams. The ceramic foams may have a hierarchical pore gradient. The ceramic foams may be silica aerogels. The ceramic foams may be made by reaction of one or more precursors in the presence of an inert gas generated by a pore-forming gas-forming additive. The ceramic foams may be used as insulating materials.

Abstract: Disclosed is a biocomposite product with high microbial activity obtained by using bee bread, the method of obtaining this product and using of this biocomposite material for the coating of products like artificial materials, packaging, etc. to be used in areas requiring hygiene or their use as an intermediate raw material.

Abstract: A method for producing a fibrous composite material component, in particular for a vehicle. According to the method, at least one dry woven fabric layer is initially provided, wherein the woven fabric layer includes carbon fibers. A binder is then applied to the woven fabric layer. Further, the woven fabric layer is reshaped into a preform layer, wherein the binder is activated during the reshaping and the woven fabric is stabilized in the reshaped shape. The preform layer is then applied to further woven fabric layers in order to strengthen the shape. The connection of the preform layer and the further woven fabric layers thus results in a preform, which is inserted into a molding tool for carrying out an RTM process. Then, the RTM process is carried out in order to obtain a fibrous composite material component.

Abstract: A swivel glide is disclosed herein. The swivel glide can include an upper member coupled to a leg of a furniture and a lower member coupled to the upper member via a ball and socket joint. Both the upper member and the lower member are manufactured via injection molding methods. In one example, a cavity side mold and a core side mold can be coupled together prior to injection molding the upper member. Once finished, the molds can be separated and the upper member can be removed from the molds. In another example, the lower member is injection molded and the upper member is injection molded on top of the lower member.

Abstract: Systems and methods for manufacturing a product include a mixing station for preparing a solution containing a base material and a performance modifier. The base material is configured to deliver performance characteristics of the product that are preselected and the performance modifier is configured to enhance the performance characteristics. An encapsulation station produces particles of the performance modifier in a coating of the base material as an encapsulate powder. An additive manufacturing cell includes an energy source and is used to build the product from the encapsulate powder by an application of energy from the energy source.

Abstract: The present disclosure relates to a method for producing a decorative wall- or floor panel, having the method steps: •a) providing a melted polymer mass; •b) extruding the molten polymer mass through a nozzle; •c) finish-sizing the molten polymer mass to form a panel-like carrier material by means of an assembly of multiple rotatable rolls, wherein the individual rolls are disposed one above the other or one behind the other and each individual roll forms at least one finish-sizing nip with neighbouring rolls, through which nip the melted polymer mass is passed, and wherein the finishing nip heights can be variably adjusted by a horizontal and/or vertical movement of individual rolls during the production process; •d) applying a decor pattern that imitates a decor template to at least one sub-region of the at least partly finish-sized carrier material, and •e) applying a protective coating to at least one sub-region of the decor.

Abstract: An outer shell for a dispenser and a method for making same are provided, the outer shell including first and second injection molded plastic component parts. The first and second component parts each include an outer surface and an inner surface, with the first component part having a first mating surface directed to the outer surface of the first component part and the second component part having a second mating surface directed to an inner surface of the second component part. The first and second component parts are joined to each other along a seam by mating the first mating surface and the second mating surface during injection moulding. A plurality of recesses is formed in the inner surface of the first component part along the seam and/or on a gate protrusion extending away from a free end of the first mating surface of the first component part.

Abstract: A method for producing a vehicle interior decorative part comprises providing a substrate film, forming a composite layer by applying a decorative ply to a first side of the substrate film, micro-perforating the decorative ply in one or more regions, inserting the composite layer made of substrate film and micro-perforated decorative ply into a cavity of an injection mold wherein, when plastics material is injected into the cavity, the decorative ply of the composite layer is back-injected and a second side of the substrate film opposite the first side is pressed against a wall of the cavity, closing the cavity and injecting plastics material into the cavity to form the decorative part substrate, the decorative ply being back-injected and the decorative ply being applied to a surface of the substrate facing the decorative ply during substrate formation in the cavity, and opening the cavity and removing the decorative part.

Abstract: A method of molding a resin molded product, including: a first molding step of injecting a first resin molding material into a first molding die to form a first resin product, wherein a fixing protrusion is formed on at least one of an inner and an outer wall part of the first resin product, and has a shape in which a width increases in a direction extending from the gap; and, a second molding step of positioning the first resin product in a second molding die, and injecting a second resin molding material at least into the gap of the first resin product to form a second resin product, wherein the fixing protrusion is embedded into a fixing recess disposed on the second molding die, thereby limiting movement of the fixing protrusion in a direction towards the gap.

Abstract: A thermosetting composition comprising the following component (A) and component (B), and having a viscosity of 0.1 Pa·s or higher and 100 Pa·s or lower at a shear rate of 10 s?1 at 25° C. measured in accordance with JIS K7117-2.

Abstract: The invention relates to a 3D printing method for the layer-by-layer fabrication of objects using laser transfer printing, and to a 3D printing device for carrying out the method. According to the method, a printing compound (54) applied to a carrier cylinder (51) is irradiated with a laser (50), detached, and transferred to a base plate (27). The resulting printing compound layers are subsequently cured and the process repeated until the object is completely built up. Using said claimed method, objects can be printed from a variety of possible printing materials with high throughput (over 1 kg/h) without affecting the print quality.

Abstract: An internally reinforced thermoplastic container has a body manufactured using rotational molding. Prior to molding, attachment elements are releasably attached to the interior surface of parts of a mold, and an initially separate tension member is connected between the attachment elements. The mold is closed and a body of the container molded such that the attachment elements are integrated into the walls of the body. After molding, the attachment elements are released from the mold. The attachment elements and the tension member define a tension structure to resist outward bulging of the container walls. The tension member may be tensioned prior to or after molding of the container body. The attachment elements may take the form of eyelets having a base incorporated into the wall of the container body. The method enables the formation of a hollow thermoplastic container with integrally formed internal reinforcement.

Abstract: A method of forming a part includes 3D printing a photopolymerizable resin and forming a preformed part and subsequently post-curing the preformed part with electron beams. The preformed part may be cured via UV curing. A section of the preformed part post-cured with electron beams may have a thickness of at least 1.0 centimeter, for example, at least 2.0 centimeters or at least 3.0 centimeters. An electron beam dosage to post-cure the preformed part may be between 10 kilogray (kGy) and 100 kGy. The preformed part may be 3D printed using stereolithography (SLA), digital light processing (DLP) or material jetting (MJ) and the photopolymerizable resin may include at least one of an acrylate functional polymer and a methacrylate functional polymer. In the alternative, or in addition to, the photopolymerizable resin may include at least one of a urethane, a polyester, and a polyether.

Abstract: A method for producing a component, and an injection-molding device. In the method, the following steps are carried out, in particular in succession: closing an injection mold, injection molding a base body by introducing a first plastic material into a first injection-molding cavity, opening the injection mold, stamping one or more first film elements and removing the component from the mold.

Abstract: A process for large-scale production of graphene comprising a step of applying graphene onto a movable surface carrying multiple particles using a PECVD-based process operating at low temperatures enabling the coating of materials that are at risk of melting, decomposing or deforming at higher temperatures. The graphene can be separated from said particles, and the particles re-circulated in the process. A production unit designed for continuous or semi-continuous large-scale production of graphene and graphene-coated particles, where said graphene-coated particles are either the desired end-product, or an intermediate. Graphene-coated particles, in particular particles where the graphene forms flakes having a desired orientation in relation to a surface of said particles.

Abstract: A device for manufacturing a window member includes a chamber, a pressure adjustment pump connected to the chamber and configured to adjust an internal pressure of the chamber, a support configured to support a base substrate, the base substrate having a plurality of trenches of which a lengthwise direction is a first direction and an auxiliary film that surrounds at least a portion of the base substrate, a dispenser configured to provide a soft material to one side of the base substrate, a pressurizer disposed within the chamber and configured to apply pressure to the base substrate as the pressurizer moves, a curing machine configured to generate a protective layer by curing the soft material, and a cutting machine configured to cut at least a portion of the protective layer.