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General Tolerance : +/- .010" for the first inch, with +/- .002 every additional inch
Build Volume : 6.5" x 6.5" x 11.8"
Standard Layer Thickness: .0043
Minimum Feature : .03"
Materials : Standard - Nylon 12 (data sheet)
Available : Nylon 11 (data sheet), Nylon 12 GF (data sheet)
Fast turn around industrial 3D printing base in Baton Rouge, serving New Orleans and the gulf south.
Selective laser sintering (SLS) printing is an advanced additive manufacturing technique that enables the production of precise and durable parts suitable for direct use in end-use applications, low-volume production, and rapid prototyping. It stands out as a cost-effective solution for industrial 3D printing services due to its ability to manufacture parts in large quantities without the need for support structures. The primary materials used in SLS printing are predominantly nylon, offering a range of infills that enhance material properties, such as stiffness through carbon-filled compositions or flame retardancy.
The process of selective laser sintering involves the utilization of a high-power laser, such as a carbon dioxide laser, to fuse small particles of plastic powders together, creating a cohesive mass that adopts the desired three-dimensional shape. By scanning cross-sections derived from a 3D digital representation of the part, generated from sources like CAD files or scan data, the laser selectively fuses the powdered material on the surface of a powder bed. After each cross-section is scanned, the powder bed is lowered by the thickness of a single layer, a fresh layer of material is added on top, and the selective laser sintering process continues iteratively until the entire part is fully formed.
Applications
The rapid speed and remarkable flexibility of SLS printing enable product developers to create physical snapshots of their designs during the iterative process. Additionally, it allows companies to conveniently access on-demand part delivery for low-volume or intricate designs.
SLS excels in rapid prototyping by swiftly producing intricate and functional prototypes, expediting the product development process while facilitating efficient testing and validation of designs, including those with moving parts and all-in-one assemblies.
SLS technology is utilized in the medical field for research and testing purposes, enabling the creation of accurate anatomical models, implants, customized medical devices, and medical manufacturing tooling and fixtures amoung others.