Direct Metal Laser Sintering Dmls Technology

Direct metal laser sintering is the most widely used metal 3d printing technology.

Direct metal laser sintering dmls technology.

Selective laser sintering sls is an additive manufacturing am technique that uses a laser as the power source to sinter powdered material typically nylon or polyamide aiming the laser automatically at points in space defined by a 3d model binding the material together to create a solid structure it is similar to selective laser melting. A major difference is the sintering temperature. It s a type of powder bed fusion in which a laser achieves full melt of the powdered metal to form a homogenous part. The two are instantiations of the same concept.

Dmls technology dmls technology is a resource for those interested in learning more about dmls direct metal laser sintering. It creates parts additively by sintering fine metal powder particles to fuse them together locally. Like in the sls process your metal part will be created layer by layer according to your 3d model. Dmls direct metal laser sintering is an additive manufacturing method.

Direct metal laser sintering dmls is one of the few 3d printing technologies that directly create a metal part from its 3d computer model. It is a highly popular 3d printing technology and achieves great results with mechanical properties above casting grade components and nearing wrought properties. The site was created to supplement information on various service bureau websites. The dmlm process is very similar except that the material is completely melted to create ultra thin liquid pools which solidify as they cool.

The direct metal laser sintering dmls process uses lasers to partially melt particles so they adhere to one another. This process is an advancement of powder metallurgy pm a mature metal molding technology that uses heat and pressure to form powdered metal parts. Direct metal laser sintering dmls is a direct metal laser melting dmlm or laser powder bed fusion lpbf technology that accurately forms complex geometries not possible with other metal manufacturing methods.