Metal parts manufacturing has undergone significant evolution over the past few decades. The transition from manual casting and forging to CNC machining and now to 3D printing represents a major shift in how metal parts are designed, produced, and delivered on the factory floor — transforming both the speed and flexibility of modern manufacturing.
This case study presents the internal evaluation of manufacturing a 150 mm diameter Adapter Plate for the Inert Bubble using Metal Additive Manufacturing with Meltio technology. The analysis compares three approaches: in-house production (Meltio LMD + partial machining), traditional full in-house machining, and outsourcing to a third-party supplier.
The BigRep ONE, the original large-format 3D printer with one-cubic-meter build volume, has been on the market for over a decade. Over the years, it’s been a reliable tool for thousands of researchers, artists, engineers, designers, and manufacturers to bring their ideas to fruition.
When it comes to creating strong, durable parts, we've talked verbatim about how different infill materials can create a variety of different part parameters tailored specifically to your individual needs. Recently though, with the help of our trusty Markforged FX10, we decided to conduct an experiment to figure out what impact different kinds of base materials might have to a part when it comes to flexibility, durability and overall strength.
Turning a design into a physical part that you can use in your manufacturing process is easier than ever with 3D printing. But how do you quickly design a custom part that can safely and securely move difficult-to-grip parts with large surfaces?
In this blog, we’ll look at the advantages of Meltio’s metal DED printing process compared to powder-based AM technologies. While these powder processes offer numerous advantages, such as high resolution and the ability to work with a growing range of materials, they also come with their own set of challenges. Understanding these challenges is essential for evaluating the true potential of powder AM processes and finding ways to optimize their performance in real-world applications.
What if you could manufacture parts that are stronger, lighter, and faster to produce than ever before? Carbon fiber 3D printing makes this possible. Thanks to this solution, you can get components that last and truly excel. With a large carbon fiber 3D printer, you can produce high-quality components for multiple industries and various purposes that will serve for many years to come, helping you achieve your business goals more efficiently.
Choosing the right filament is one of the most important decisions in every 3D printing project. Some of the materials most commonly considered in this matter are PLA and ABS, two thermoplastics with distinct properties and multiple possible applications. Both of them are popular in FDM 3D printing, but they tend to be preferred for specific uses.
When it comes to delivering props and set pieces for the wide range of creative industries including TV and film, theater productions and theme parks, there's been considerable evolution in the methods and technologies used to produce professional props over recent years. Driven largely by the growing need for more precision, flexibility and the speed to deliver.
Choosing the right 3D printing partner can be the difference between a project’s success and failure. With the growing demand for custom manufacturing and rapid prototyping, many businesses are turning to 3D printing companies to bring their designs to life. But not all 3D printing partners are created equal. Here are five essential questions to ask when evaluating a potential partner.