Digital Metal. Additive manufacturing of small and complex metal parts

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Digital Metal Additive manufacturing of small and complex metal parts

Rapid 3D printing Höganäs proprietary technology Digital Metal is making great strides into territories previously ruled by conventional manufacturing technologies. High productivity, excellent surface quality and great resolution have brought our 3D metal printing services out of the prototyping phase, and into large series manufacturing. This is what s in it for you. Advantages High productivity Excellent surface quality High resolution Serial production Mass customisation Repeatability So far no other metal additive manufacturing technology can match the level of resolution and surface quality provided by Digital Metal BATHSHEBA GROSSMAN, BATHSHEBA SCULPTURE LLC (USA)

for you What s so good about it? For a start, the process requires no complex or costly tools and keeps waste material down to an absolute minimum. But that s not all. Here are just a few of the other advantages: Impossible objects become possible 3D metal printing enables the production of complex objects that would be costly if not impossible to produce using conventional methods. This is music to the ears of industrial designers, who can at last unleash their full creativity and explore the new territory that 3D metal printing opens up. Fast track from concept to completion In today s fast-paced, competitive environment, producers face ever shorter product life cycles and ever greater product variety. You need new, quicker ways to innovate and get your innovations to market. 3D printing is the answer. With this technology, Höganäs can take your product from concept to completion in less than two weeks. Cost-effective production Not only does 3D metal printing provide a much more cost-effective way of manufacturing complex metal parts, it is also the ideal solution for the production of mass-customised components or flexible serial volumes. 10 mm Where can you use it? Industrial applications 3D metal printing makes it possible to quickly and cost effectively produce complex metal components for industrial use. They can be hollow or meshed, with undercuts, ducts, cavities and internal structures. Almost any design, no matter how complicated, is achieveable using this technique. Dental/medical 3D metal printing also opens up the possibility of rapid customisation of dental and medical devices. Patients will benefit from our ability to produce 100% customised products, based on their own precise needs and physionomy. Aerospace By making lightweight but strong metal components, with hollow or meshed interiors, Höganäs can also contribute to advances in aircraft design. Design 3D metal printing enables a whole new level of creative freedom! Non-critical metal parts can be hollowed out, thus making them much lighter, which helps solve one of the main challenges of aircraft design.

This is how it works Are you looking for ways to increase the tolerances, surface finish and resolution of your components, while simultaneously maximising productivity? Then precision ink-jet on powder might be the solution to what you are looking for. Powder delivery system Printed surface Printer Layer by layer Our process begins with an object described in a CAD file. This is materialised in our 3D printer, which builds the object layer by layer, using metal powder and precision ink-jet. Once complete, the object is sintered for strength. The result? A metal component or part with high resolution and tolerance. An additional third step can be introduced to refine surface quality. Today, Digital Metal predominantly produces parts or components in stainless steel. However, other materials such as titanium, silver and copper are close to commercialisation. Print box Piston The fine metal powder and high precision ink-jet technology provide consistent high resolution. Precision ink-jet on powder bed Printing Cleaning Sintering 1 2 3 4,17 mm

Detail accuracy Growing up, this man probably never expected turning into a man of steel, 10 mm tall. However, unlike a well-known super hero, this transformation from human to steel will not pass unnoticed. The very fine detail makes it impossible to keep his true identity safe. Varying hole diameter Due to the very precise process, our proprietary Additive Manufacturing technology Digital Metal, can be used for making parts with extremely fine holes of great dimensional accuracy. This particular sieve adds yet another dimension to precision and customisation: the holes are of variable diameters. 2 mm Internal channels A major advantage of Digital Metal is the free form design capability offered. Nowhere is this more evident than in the case of internal channels that easily can be utilised to provide complex, optimised internal structures. 17 mm Itsy bitsy It may be hard to grasp the small size of this pair of happy twins. Apart from the precision required, our small friends visualise yet another advantage of Digital Metal: high productivity. In just one batch, we are able to manufacture very large numbers of similar, or even better dissimilar objects. 30,66 mm Integrated design The pea of the whistle is not visible, but rest assured it is in there. In our 3D printing process the integrated pea is built resting on the surrounding layers of metal powder. Once the powder is removed, prepare yourself to get blown away. Advanced geometry This complex geometry is a prime example of what Digital Metal is all about: making the seemingly impossible possible. Simply put, this is what we call design beyond your imagination.

Mass production of customised parts In the manufacturing of small and complex components, you are likely to find Digital Metal a very competitive alternative to conventional mass production technologies. You may also consider the possibility of making every part a unique product. Productivity Small part sizes means there is plenty of room for large numbers of components to be printed simultaneously. This is in particular true for Digital Metal. By means of the high-precision process, we are able to pack the building-box densely. Required spacing between parts to be printed is less than 1 millimetre. The high productivity also goes to explain why Höganäs today is one of the first service providers in the world supplying large series of 3D printed products. Gaining access to our technology Are you interested in setting up 3D printing at your premises? We are licensing our Digital Metal technology and are also willing to discuss equipment sales. Please find our contact information on the back page of the brochure. Mass-customisation There is time to be saved and money to be earned taking a closer look at the flexibility of Digital Metal. Every single part in a batch of components can be custom-made, no matter the number. This opens up for creative thinking and added marketing value as you are able to supply products customised for your market. Consequently Digital Metal also enables simultaneous printing of different product series in the same production run. A 3D-printed set of chess pieces. An example of the mass-customisation capability of Digital Metal. 10,4 mm

Surface quality Surface quality is a common issue to be resolved when producing metal components using Additive Manufacturing (AM) processes. A rough surface quality of Ra 10 µm, typical for many metal AM processes, often fails to meet the requirements. Höganäs provides an opportunity to significantly improve surface quality. By utilising one of several available techniques you can achieve the finish that matches your specific need. Capability Material data - typical values Ultimate strength Yield strength (0.2%) Elongation Hardness MPa MPa % HRB HRC 316L 520 180 50 55 17-4PH 1050 900 4 25 8.0 Ra [µm] Process impact Chemical composition (%) Fe Cr Ni Mo Cu Nb+Ta 7.0 on surface quality 316L Bal 16-18 10-14 2-3 6.0 17-4PH Bal 15.5-17.5 3-5 3-5 0.15-0.45 5.0 4.0 Process capability 3.0 2.0 1.0 0 Process Feature Density Geometrical capability Maximum length Minimum length Corner R Chamfer Wall thickness Resolution Holes Productivity Accepted file formats Typical MPIF standard 35 for MIM 96% for 316L Preferably < 50 mm > 300 μm 35 μm Steps of 35 μm in z direction Preferably > 300 μm. Minimum > 200 μm Maximum 35 μm in z direction > 200 μm depending on hole length 50 cc/h STL, STEP As sintered, an average surface quality of Ra 6.0 µm is achievable. Peening, blasting and tumbling increase surface quality to an average of Ra 3.0 µm. Superfinish enables even higher surface quality, around Ra 1.0 µm.

Power of Powder Metal powder technology has the power to open up a world of possibilities. The inherent properties of metal powders provide unique possibilities to tailor solutions to match your requirements. This is what we call Power of Powder, a concept to constantly widen and grow the range of metal powder applications. With its leading position in metal powder technology, Höganäs is perfectly placed to help you explore those possibilities as your application project partner. Power of Powder is being applied far beyond its traditional role in the production of components for vehicles. Regardless of application, our Additive Manufacturing technology Digital Metal makes it possible for you to meet an ever increasing demand to innovate. Digital Metal enables rapid 3D metal printing of complex objects that would be costly if not impossible to produce using conventional methods. In fact, metal powder technology generates virtually endless possibilities. To find out how you can apply the Power of Powder, please contact us. How to contact us digitalmetal@hoganas.com www.hoganas.com/3dprinting Höganäs AB (publ.), March 2016. 1436HOG