This article explains what roughness is in 3D printing, provides surface roughness measurements for SLS, MJF, FDM, DMLS, Carbon DLS, and Polyjet 3D prints and highlights the benefits of surface treatments to achieve a smooth surface for 3D printed parts.
This article explains what roughness is in 3D printing, provides surface roughness measurements for SLS, MJF, FDM, DMLS, Carbon DLS, and Polyjet 3D prints and highlights the benefits of surface treatments to achieve a smooth surface for 3D printed parts.
From low-cost plastic filament to engineering-grade titanium powder, the range of available 3D printing materials is wider than ever. Here we look at the key material categories.
What is 3D printing? This article goes over the basics of 3D printing, otherwise known as additive manufacturing, covering its engineering principles and applications.
E2IP Technologies manufactures Flexible Heaters using Screen Printing Technology. This is one of the most important segments of printed and additive electronics with applications in cars, homes, and industrial settings.
Here’s what to do if you notice clicking noises, under-extrusion, or other print quality issues caused by extruder skipping on the Ender 3 by Creality.
Unwanted lines in 3D prints can show up for many reasons and take different forms. Here we look at the most common types of lines in 3D prints and how to eliminate them.
KIT researchers are developing a process with which, for the first time, mirrors with a reflection of more than 99 percent can be printed in variable sizes
A deep dive into the physics, properties, and practical applications of 3D printing filaments, from everyday polylactic acid to performance composites.
Using a fleet of printers including an UltiMaker S3 and a MakerBot Method X, the team at Ocean Alliance was able to design, prototype, and build a sophisticated drone-based tagging system from the ground up.
This guide explores how to leverage infill to balance structural integrity with efficiency, ensuring your 3D prints meet specific performance needs while minimizing waste and production time.
This article explains what roughness is in 3D printing, provides surface roughness measurements for SLS, MJF, FDM, DMLS, Carbon DLS, and Polyjet 3D prints and highlights the benefits of surface treatments to achieve a smooth surface for 3D printed parts.
From low-cost plastic filament to engineering-grade titanium powder, the range of available 3D printing materials is wider than ever. Here we look at the key material categories.
3D printing, or additive manufacturing, has opened up a world of opportunity when it comes to design. Unconstrained by the limitations of traditional manufacturing processes, the technology has enabled breakthroughs in organic geometries, generative design, and lattice structures.
Introducing the first article in a new series, making clear the impact of additive manufacturing on the manufacturing industry, transport, packaging, and STEAM.
3D Printers produce particulates and chemical fumes that can become a health hazard for their users. What are the factors that cause these adversities and how does ventilation help in avoiding them?
Beginners are often confused by the plethora of material options available for 3D Printing. In this article, we explore the different materials available and how their unique properties influence their utility.
Progress in printhead technologies, material science, and manufacturing processes has markedly enhanced the capabilities of inkjet printers. Inkjet printing has now discovered applications in an expanding variety of industries and processes.
While industries like aerospace and automotive have been using additive manufacturing technologies for many years, the marine sector has recently picked up the pace of adoption thanks to the benefits provided by Large Format Additive Manufacturing. Companies like yacht and ship-builders are quickly speeding up the introduction of large parts manufactured with technologies like Caracol's Heron AM.
The military and defense sectors are undergoing an unprecedented transformation as military bases around the world adopt 3D scanning and additive manufacturing technologies for a wide range of applications. That includes maintenance, repair, and overhaul (MRO) processes, damage assessments and reverse engineering of parts, to name a few.
Researchers have developed a 3D bioprinter for cancer research that can be folded into a carry-on pack, transported, and easily reassembled for printing inside a biosafety cabinet. The technology can perform rapid and reproducible manufacture of complex tumouroids – 3D cell cultures which resemble tumour tissues – to test potential immunotherapy treatments.
In this episode we talk about how researchers at EPFL have developed a new method of 3D printing bone-like composites using bacteria-infused ink. The process involves the use of hydrogel as a printing medium that provides a scaffold for bacterial growth, which produces calcium carbonate crystals that mimic the properties of bone.