Übersetzung für "Additive fertigungsverfahren" in Englisch

Generative or additive manufacturing processes with metallic components require the use of special welding equipment.

Additive manufacturing processes were also very prominent in this track.

The market for additive manufacturing processes (AM) is developing at warp speed.

Additive production processes such as 3D printing are the future for sustainable production.

Additive manufacturing is in the strategic focus of Lanxess Urethane Systems.

Through additive manufacturing processes you can realize very complex and bionic geometries.

Additive manufacturing processes are also becoming more commonplace in the factory environment.

Additive manufacturing processes using 3D printing or laser melting offer enormous potential for industry.

Such additive manufacturing methods may be selective laser sintering, direct laser depositioning or electron beam deposition welding, for example.

In this case, it should be noted that a substrate is always required for additive manufacturing methods.

Accordingly, this embodiment covers the additive manufacturing process of stereolithography (SLA).

The additive manufacturing process may be a stereolithography process or a DLP (digital light processing) process, for example.

This however can be a negative relative to additive manufacturing processes like 3D printing that have even lower scrap rates.

Additive production procedures such as 3D printing are becoming more significant in the production of complex end products.

Digitalization also includes additive manufacturing processes that enable fast 3D production of complex components.

The Federal Institute of Occupational Safety and Health has drawn up an overview of current additive production processes and the legal...

With production costs falling and quality improving, the Stuttgart-based car manufacturer intends to use additive production processes in the future to guarantee a better supply of parts in niche areas.

AM technologies for the manufacturing of final products have manifold application potentials in various industries such as mechanical and plant engineering, automation engineering, aerospace, automotive, electronics, medicine, architecture and civil engineering, arts, design, clothing and sporting goods, toys, food and, last but not least, even military engineering and arms technology.

With technology progressing fast, additive manufacturing processes will not only be used for prototypes but be introduced into Sulzer's factories in the foreseeable future.

The plan then is to apply the newly established methodology to other additive manufacturing technologies, especially to various plastic technologies.

As for lower production costs, one process that is becoming increasingly popular in the tap sector is that of additive manufacturing, i.e. 3D printing of objects in the desired shape and materials.

While the worldwide revenue for additive manufacturing processes (3D printers, materials, accessories, software, services) was 3.07 billion US dollars in 2013, it will already reach a volume of 7.31 billion in 2016.

The focus of the agenda was on new industrial use opportunities for the material ceramic and the associated new (additive) manufacturing processes.

In the technical session a representative of the Airbus Endowed Professorship, engineers from EADS, a representative from EOS, researchers of the RWTH Aachen, and members of the ILT Fraunhofer and the TU Hamburg Harburg presented their work in the area of additive manufacturing.

The present invention relates to the use of free-radically curable compositions, comprising chain-like and/or cyclic and/or cage-type polysiloxanes substituted by free-radically polymerizable groups and having at least 3 silicon atoms and/or mixed forms thereof, disiloxanes substituted by free-radically polymerizable groups, optionally one, two, three or more free-radically curable monomers having no silicon atom, fillers, initiators and/or catalysts for free-radical polymerization, and also further customary additives, in additive manufacturing methods, preferably in stereolithography (SL) and digital light processing (DLP).

Additive manufacturing methods for producing three-dimensional object according to a data record are known from the literature, some of which work with layered source materials such as paper and thus circumvent the powder handling.

The invention is also applicable to other additive production methods, for example laser melting, mask sintering, drop on powder/drop on bed, stereolithography, and the like.

The solution according to the present invention is accordingly particularly useful for the production of polylactic acid particles for rapid prototyping (additive methods of fabrication), especially for laser sintering applications, wherein the average particle size of the polylactic acid particles is preferably below 150 ?m, more preferably below 125 ?m and especially in the range from 50 ?m to 70 ?m.

Moreover, additive manufacturing methods are suitable particularly for the production of small structures, since, in the case of more bulky structures, the outlay in manufacturing terms rises considerably.

In particular, additive manufacturing methods (so-called rapid manufacturing or rapid prototyping methods) are known in which the component is built up layer by layer by powder-bed-based, additive manufacturing methods.