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.
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 the fast-paced world of food and beverage manufacturing, companies are constantly seeking ways to improve efficiency, reduce costs, and innovate their production processes. Additive manufacturing has emerged as a powerful tool to meet these demands, offering flexibility and speed in creating custom parts and tooling and keeping lines up and running. However, one critical barrier has restricted its adoption in this industry: the limited availability of food-contact certified filament materials.
In the modern manufacturing landscape, the quest for materials that combine the lightweight benefits of plastics with the strength and durability of metals is ever-present. This is where the Markforged FX10 and FX20 come into play, bridging the gap between metal and plastic through innovative composite printing. These advanced 3D printers stand out for their unmatched ability to produce robust, high-quality parts that meet demanding industrial needs. Here’s how the FX10 and FX20 can streamline your operation from prototype to production. Fostering innovation, shortening the development time frame, reducing costs, and position manufacturers as leaders in their industries.
When it comes to large-format 3D printing, the possibilities are vast. Whether you need rapid prototyping or custom manufacturing of end-use parts, large-format printing is revolutionizing industries like aerospace, automotive, construction and more. But with so many printers, materials and technologies to choose from, it can be overwhelming to select the right platform for your business. At EXBuild, we’ve done our research, carefully selecting top-tier technologies that deliver exceptional results for a wide range of applications.
In Fall 2023, we launched FX10 as a next generation composite printer. We promised modularity, but didn’t specify what modularity meant. Now, we can clarify. The modularity we were promising was Metal FFF capability – making FX10 the first industrial printer capable of printing composite and metal parts. FX10 was designed from the ground up to bring this dual capability to customers. In this blog post, we’ll talk about what it took to create the first industrial metal and composite 3D printer, and what it means for you as a potential user.
As a business invests in 3D printing, owning multiple types of printers provides a significant edge. The combination of a Photocentric resin printer and a Markforged carbon fiber printer creates a dynamic production environment, enabling you to take on various challenges. Here’s why you should consider having both in your shop:
An interesting project came to EXBuild when a good customer picked up an old wheeler. They wanted to utilize the accessory racks on the wheeler. They just could not find any mating accessories they liked. We looked it over, listened to what they wanted, took a few measurements and quoted this project.
Mark Two and Onyx Pro Turbo Print is a new 250 µm layer height print mode for Gen 2 Mark Two and Onyx Pro printers that results in print speed increases of up to 2x compared to 200 µm print settings. Print speeds up to two times faster means parts are delivered quicker, printer throughput is increased, and design iterations are completed sooner, resulting in more value and increased ROI.