Selective Laser Sintering (SLS) 3D printing is a game-changer for functional prototypes and low-volume production—it creates complex, high-strength parts without support structures, using durable materials like PA12 and PA11. But even the best SLS printers can’t fix a poorly designed part: thin walls may warp, trapped powder can ruin functionality, and ignored shrinkage can break assemblies. The key […]
FDM (Fused Deposition Modeling) is a go-to 3D printing technology for prototypes, functional parts, and low-volume production—but weak prints are a common frustration. Too often, FDM parts break under stress, warp during printing, or fail to hold up to daily use. The good news? With the right material choices, design tweaks, and process adjustments, you
When it comes to plastic fabrication, two processes stand out for their versatility: CNC Machining (subtractive) and 3D Printing (additive). CNC carves parts from solid plastic blocks, while 3D Printing builds them layer by layer from filaments or resin. Both make high-quality plastic parts, but their strengths—like precision, speed, and cost—vary drastically based on your
When it comes to making plastic parts—whether for prototypes, small batches, or mass production—two processes dominate: Injection Molding and 3D Printing. Injection Molding uses molds to pour molten plastic into shapes, while 3D Printing builds parts layer by layer from filaments or resin. Both have strengths, but the wrong choice can waste time, money, or
When it comes to 3D printing, two technologies stand out for accessibility and versatility: SLA (Stereolithography) and FDM (Fused Deposition Modeling). SLA uses light to cure liquid resin into precise parts, while FDM melts plastic filaments to build layers. Both work for prototypes, small-batch production, and even end-use parts—but their strengths, costs, and best uses
Manufacturing has two heavyweights: subtractive manufacturing (cutting away material) and additive manufacturing (building layer by layer). Both turn raw materials into parts, but they work in opposite ways—each with unique strengths for different projects. Whether you’re making a metal bracket, a plastic prototype, or a complex medical tool, choosing the wrong one can waste time,
3D printing is a game-changer for prototyping and small-batch production—but high costs can hold back projects. From material waste to unnecessary post-processing, there are hidden expenses at every step. The good news? You don’t have to sacrifice quality to save money. This guide breaks down how to reduce 3D printing costs across design, manufacturing, and
If you’re looking for a 3D printing technology that balances speed, precision, and cost for polymer parts, HP Nylon Multi-Jetting Fusion (MJF) 3D printing should be at the top of your list. Used by startups and large manufacturers alike, MJF stands out for its ability to make durable, functional parts—from prototypes to low-to-medium production runs.
The automotive industry is no stranger to innovation—and 3D printing has emerged as one of its most game-changing tools. Over the past decade, additive manufacturing (the technical term for 3D printing) has moved beyond just prototyping to reshape how cars are designed, built, repaired, and customized. For automakers, suppliers, and even custom shops, understanding 3D printing’s role
When working with polymers—think ABS, nylon, or PC—you’ll almost always face a big question: Should I use CNC machining or 3D printing? Both turn plastic into functional parts, but they work in totally different ways, and the wrong choice can waste time, money, or ruin your part’s performance. This guide breaks down the key differences,
The medical industry is undergoing a revolution, thanks to 3D printing technology. What was once a cutting-edge concept is now a daily tool, transforming how we create prosthetics, implants, and surgical tools. At the heart of this revolution are 3D printing materials—the building blocks that make safe, effective, and personalized medical solutions possible. In this
3D printing makes it easy to create custom parts—but too often, users end up with fragile components that crack under use or fail to meet project needs. The problem isn’t just material choice: even high-quality polymers or metals need smart design, optimized print settings, and targeted post-processing to reach their full potential. Whether you’re printing
When choosing 3D printing for your project, two technologies stand out for durable, functional parts: Selective Laser Sintering (SLS) and HP Multi-Jet Fusion (MJF). But the final quality of your part doesn’t just depend on the technology—it hinges on picking the right material and surface treatment. Customers often ask: “Will this part’s surface be smooth enough?” or “Is this material strong
In the world of 3D printing, Resin Light Curing (SLA) stands out for its unmatched precision—making it the top choice for detailed parts like jewelry, dental models, and small mechanical components. But to get the most out of SLA, your design needs to follow specific rules: from wall thickness to hole sizes, tiny details can
In the food industry, safety is non-negotiable—especially for tools, containers, and equipment parts that touch food. Food-grade 3D printing has become a game-changer here, letting businesses create custom, cost-effective components faster than traditional manufacturing. But to avoid contamination or compliance issues, you need to get three key areas right: design, materials, and post-processing. This guide breaks down
In the fast – paced world of electronics, staying ahead means embracing technologies that boost speed, flexibility, and creativity. Additive manufacturing (also known as 3D printing) has emerged as a transformative force here. Unlike traditional manufacturing, it builds parts layer by layer, opening up new possibilities for electronic components—from custom circuit boards to lightweight enclosures. Whether you’re
