Reinforcing 3D-printed parts with continuous fibers — such as fiberglass or carbon fiber — is a valuable manufacturing capability. It allows users to easily print parts that are much stiffer and stronger than parts made from only plastic. When adding fiber to a part, users have a few decisions to make: the type of fiber fill (concentric or isotropic), how much fiber to use, and where in the part to put the fiber.
Up until now, 3D printing very large parts has been costly, slow, and problematic. Large format 3D printers, their software, maintenance, and consumables are all extremely expensive and the finish can still be rough requiring a lot of post-processing. One option can be to use more affordable small printers to print in smaller pieces and then carefully join them together, but its more time consuming and the part may not fit together properly. Either way, the process is slow and parts could fail during the print or worse, later in use.
Markforged is bringing industrial production to the point of need. We’ve spent the last decade building an additive manufacturing platform that brings real value to factory floors.
We are excited to introduce you to a game-changing innovation that has the potential to revolutionize your business operations - the Photocentric LC Titan 3D printer. This cutting-edge device is not just a 3D printer; it's a catalyst for enhanced efficiency, cost savings and innovation within your organization.
The aerospace industry has long been at the forefront of technological innovation, continually pushing the boundaries of what's possible in terms of engineering and design. 3D printing is the most transformative technological advancements in recent years in the aerospace industry.
The use of wire feedstock with a laser energy source in DED has gained momentum in recent years, with increasing research and industrial applications. These features make it a new and promising option in the field of additive manufacturing, generating significant interest and exploration across various industries.
Meltio has launched the Meltio Robot Cell, a turn-key metal 3D printing solution to boost the performance of industrial robotic arms in a safer, more reliable, and highly accurate way by controlling the entire process including its recently launched slicing software, Meltio Space.
In additive manufacturing, if you want to succeed, then you need high speeds. The crucial question remains: how can you maintain quality while significantly ramping up production speeds?
It helps to have a better understanding of how 3D printing speeds are defined, what they mean for your prints, and tried and tested ways of producing parts faster. To learn more, read our thorough guide below.
Even though airplanes are flying machines packed with technology, passengers typically perceive them as cramped yet passably comfortable traveling environments. Covers and panels hide all the actuators, cables, and electrical and mechanical devices in the plane walls. They also safely shield functional components from passengers while also contributing to the look and feel of the interior cabin space. These panels are commonly made from fiberglass composite materials due to the combination of low weights with high stiffness and load-bearing capabilities.
Subtractive manufacturing (computer numerical control, or CNC machining) has been one of the most preeminent manufacturing methods for the past several decades. Introduced in the 1940’s, subtractive manufacturing was used as a tool to machine highly complex parts that require optimal precision. Essentially, the process involves subtracting or cutting from a block of material to create an end product. Today, subtractive manufacturing comes in many different forms (milling, turning, laser cutting, wire EDM, and carving) and is used for a wide variety of prototyping, production and assembly line applications.