Stainless Steel Composite Metal Filament for 3D Printers
Ultrafuse® 316L is an innovative filament to produce 316L grade stainless steel parts.
Easy and cost effective 3D printing of metal parts with Ultrafuse® 316L
BASF have developed Ultrafuse® 316L to realise high-quality metal parts and high throughput. This state-of-the-art metal filament is suitable for use with any conventional Fused Filament Fabrication (FFF) printer. Following the print, the final properties of the part are then achieved through a debinding and sintering process developed by BASF, which has emerged as the industry standard.
Ultrafuse® 316L is cost-effective, easy to process and meets the MIM industry standard for catalytic debinding and sintering. This innovative industry-grade metal-polymer composite supports a broad range of applications, including tooling, jigs and fixtures, small series production, functional parts, prototypes, and even jewellery.
Ultrafuse® 316L formulates thermoplastic binders with 90 mass percent of highly-refined metal particles. Our filament has a non-slip surface allowing it to be applied in most Bowden or direct-drive extruders. Thanks to its high flexibility, it can be fed through complex idler pulleys and multiple filament transportation systems in printers – no extra drying required. As a filament, the metal-polymer composite comes with none of the occupational and safety hazards associated with the handling of fine metallic powders, making 3D printing of stainless-steel parts affordable, straightforward, and safe.
ULTRAFUSE® 316L STAINLESS STEEL
Print solid metal parts on METHOD
(NB : US promotions not available inthe UK)
BASF Ultrafuse 316L Stainless Steel parts combine the next level strength, rigidity, and durability needed for end-use parts and manufacturing tools.
Design for this Additive Manufacturing process has considerations for stability of brown parts
Create One flat Side
High Width to Height ratio
Parts with Constant thickness
Avoid thin Walls
Keep parts 100mm³
Parts Shrink Anisotropically
Scaling for Anisotropic Shrinkage
X & Y = 1.2
Z = 1.26
Approx 20% in Z axis
Approx 16% in X & Y axis
This will require iteration for design to working part