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4 Tips Ahli untuk Desain dengan Manufaktur Aditif Logam

4 Tips Ahli untuk Desain dengan Manufaktur Aditif Logam

Manufaktur aditif logam menyenangkan untuk hal-hal baru yang memungkinkan. Ini sudah membantu menciptakan bagian yang lebih ringan untuk pesawat lebih hemat bahan bakar dan meningkatkan kehidupan pasien dengan implan medis buatan khusus. Pasar juga tumbuh, dengan analis memprediksi bahwa aditif logam akan menghasilkan komponen senilai $228 miliar dalam dekade mendatang.

Janji aditif logam jelas tetapi tidak selalu mudah untuk diwujudkan, sebagian karena merancang untuk aditif logam memiliki kurva pembelajaran yang curam. Industri manufaktur belum mengakumulasi pengetahuan fungsional selama dekade seperti yang kita miliki untuk proses pengurangan konvensional. Plus, merancang untuk aditif logam memiliki seperangkat aturan yang berbeda dari merancang untuk aditif berbasis polimer.

4 Tips Ahli untuk Desain dengan Manufaktur Aditif Logam

Getting familiar with metal additive design takes time and effort. Our team of application engineers at Fast Radius has extensive first-hand knowledge on the subject. We compiled our top four design rules for metal additive to help get you started.

1. Understand the material set

Metal additive processes fall into two categories based on the densification process they use: melting / solidifying with fusion or solid-state densification. Fusion-based processes resemble traditional welding in the way they bond materials, while solid-state processes resemble traditional sintering.  The materials used for each additive process are similar to those used in their traditional analogs, and they’re generally good for the same types of applications. There’s a lot of overlap; both methods use the same family of stainless steels, for example. It’s important to note, however, that materials will behave differently depending on the technology you use.

4 Tips Ahli untuk Desain dengan Manufaktur Aditif Logam

When choosing the right method for your project, you need to evaluate not only the types of materials available, but also how the printing process with affect the properties of your final part. The good news is that in some cases you might be able to leverage additive design—perhaps by consolidating elements or creating complex geometries—to make your part with a material that wouldn’t meet your requirements in traditional processes.

2. Plan and design for post-processing

Metal additive can be tricky. Even if it looks like your part will print perfectly, it could end up failing if you neglect to design for post processing, so you need to take special precautions. Many metal additive processes involve powder, so you need to design for powder removal or risk failure when powder agglomerates during heat treatment. In some cases, especially when creating hollow parts, you might have to facilitate powder drainage by adding holes to your design.

With powder bed metal additive technology, your part forms a strong bond to the build plate and must be removed, which can pose design challenges. For example, wire EDM can be a good option for separating part from plate, but you might need to design a fixture to keep the part from get damaged when it’s detached. Parts made with metal additive usually require adjustment to meet final requirements after they come off the printer, so make sure your design takes post processing into account.

3. Try to make your design self-supporting

Generally speaking, you should always aim to minimize overhangs and reliance on support structures when designing for additive. This recommendation is even more crucial for metal. Because of the way metal additive processes fuse layers on top of one another, overhangs may come out misshapen or poorly finished if the angle to the build plate is too small. Support structures aren’t always an ideal solution to overhang issues because they waste material and their removal can compromise the stability and finish of your part.

4 Tips Ahli untuk Desain dengan Manufaktur Aditif Logam

There isn’t a general rule of thumb to determine when an overhang requires support. Each metal additive technology is different and can support overhangs at different angles. The overhangs supported by each method should be a key determining factor in choosing a process for your design.

4. Prepare your skillset for metal additive

Metal additive is still in the relatively early stages of adoption, but the market is maturing rapidly. Building expertise now will future-proof your business and give you a competitive advantage as the technology becomes more accessible.

But expertise doesn’t come easy. As we’ve outlined here, designing for metal additive takes a different skill set than designing for traditional manufacturing or even polymer-based additive. An experienced manufacturing partner like Fast Radius can help you choose the right technology for your application, get your metal additive designs ready for production, and manufacture parts accurately. Once you’ve been through the process, you’ll start to see how metal additive can improve existing products and create totally new ones.

Ready to try metal additive? Contact us today to get started.


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