We've added GD&T to our in-house first article inspections (FAIs) and process capability studies to give you an even more complete set of dimensional verification options.
Get a realistic snapshot of the surface finishes that are possible on machined plastic and metal parts. This guide includes high-quality photos of your surface finish options at Protolabs.
Download this guide to explore the processes involved in creating sheet metal parts along with how to design common features and select the right material.
Struggling with thermoplastic material shortages? We created a detailed guide to resin substitutes for ABS, PC, PP, and other commonly molded thermoplastics.
This design aid demonstrates part features that are too thin or too thick, bad bosses, right and wrong ribs, and other considerations to be mindful of while designing parts for injection molding.
After uploading your part design, you'll receive an online quote that includes manufacturing analysis to help improve part manufacturability. Within your quote, you can also adjust quantity and material and see price changes in real-time.
There’s one of only a few 3D printing processes that is possible at both a desktop- and industrial-level. It’s fused deposition modeling (FDM), although you’ll sometimes see it referred to as fused filament fabrication (FFF). It’s a great printing process to create prototype parts to test fit and form. Because it prints using thermoplastic material, it also delivers parts that are functional when in a high-heat environment, or when exposed to chemicals or mechanical stress.
A game-changing innovation race with high market-share stakes is taking place in the automotive sector these days as the industry makes a quantum shift from internal combustion engines (ICEs) to electric vehicles.
There’s one fundamental thing you need to know about threading and assembling inserts into 3D-printed parts: What you can and can’t manufacture depends on the material properties of both the part and the insert. A second thing to keep in mind: It pays to design for standard taps and inserts whenever possible.
Zeroing in on which of our six 3D printing technologies you want to use is totally dependent on your project needs, part applications, material selection, and overall desired aesthetic. Two of our most popular 3D printing services, stereolithography (SLA) and selective laser sintering (SLS) offer engineering-grade options for parts.
It’s no secret that 3D printing processes don’t produce injection molding-quality surface finishes right off the printer, but there is good news. Technologies exist to help, and there are new developments all the time.
A lot of people think that you can create virtually any shape your mind can imagine using 3D printing technology. OK, so that’s sort of right, but not entirely. The hard part is coming up with aesthetically beautiful designs that also are functional for your application, structurally sound to achieve longevity, and are modeled to address the limitations of the medium.
Part of the confusion could lie in the history and development of the technology. Over the past several decades, 3D printing has earned a solid reputation as an essential process for prototyping parts.
When you’re printing really large parts in metal, it’s great to have a choice of materials. Aluminum and Inconel 718 both make a lot of sense, but which one is the best for your application?
Sometimes the coolest inventions are right at your fingertips. The Finger Flyer Hoverboard is a fun toy, but also a great teaching tool that explores aerodynamics. Find out how we helped manufacture this remote control-free quadcopter drone.
At our current point in time in the evolution of additive manufacturing, 3D printing serves as both a blessing and a curse with young engineers—thankfully, Protolabs gets it.