Refractory metals—known for their ultra-high melting points and exceptional heat resistance—were once considered too difficult to machine with traditional methods. Today, 3D printing has unlocked new possibilities for these materials, enabling the creation of complex, high-performance components for aerospace, medical, and electronics industries. This article answers the question “Can refractory metals be 3D printed?” by […]
The temperature resistance of photosensitive resin prints directly determines their usability in real-world scenarios—from simple display prototypes to high-heat industrial components. Not all resin prints perform the same under heat: some soften at 40°C, while others maintain stability above 280°C. This article breaks down the typical temperature resistance ranges of photosensitive resin prints, key influencing
3D printing TPU (Thermoplastic Polyurethane) is celebrated for its flexibility, but its low temperature resistance is what makes it stand out in harsh-environment applications—from aerospace components to cold-weather automotive parts. Understanding exactly how low TPU can perform, and what factors affect its cold-weather durability, is critical for choosing the right material for your project. This
FDM (Fused Deposition Molding) and SLA (Light Curing Molding) are two mainstream 3D printing technologies, each tailored to distinct project needs—one for cost-effective functional parts and the other for high-precision, detailed models. Understanding their differences is critical for choosing the right process, whether you’re making mechanical prototypes, medical models, or display items. This article breaks
Light curing printing and ordinary printing (e.g., inkjet, laser printing) are two distinct technologies tailored for different manufacturing needs—one for high-precision 3D objects and the other for fast 2D flat outputs. Understanding their differences is critical for choosing the right method, whether you’re creating dental models, jewelry prototypes, or office documents. This article breaks down
SLS (Selective Laser Sintering) and SLM (Selective Laser Melting) are two leading powder-based 3D printing technologies, but they differ drastically in how they process materials and deliver part performance. Understanding these differences is critical for choosing the right method—whether you’re making prototypes, industrial components, or medical implants. This article breaks down the core differences between
3D printing has opened up a world of possibilities for creating complex and customized models, from medical devices to industrial parts. But to get high – quality, functional printed products, it’s crucial to meet specific requirements when designing 3D models. These requirements directly impact the stability, strength, and accuracy of the final print. In this
In the fast-paced world of modern medicine, the pursuit of higher surgical precision, better patient outcomes, and more efficient procedures is unceasing. Among the game – changing technologies that have emerged in recent years, 3D printing has taken center stage, especially in the creation of surgical guides. These 3D printed tools are not just innovations;
For aviation enthusiasts, engineers, and hobbyists, building a model aircraft is a labor of love—but traditional methods (like hand-cutting plastic or assembling pre-made kits) often limit creativity and detail. That’s where 3D printing model aircraft changes the game. This technology lets you turn custom designs into physical, high-precision models—whether you’re recreating a vintage WWII fighter
ABS (Acrylonitrile-Butadiene-Styrene) is a popular thermoplastic for 3D printing, loved for its strong mechanical properties and heat resistance. But a common question among users—from hobbyists printing at home to product engineers in labs—is: Is 3D printing ABS toxic? The answer isn’t a simple yes or no. While ABS material itself is non-toxic, the 3D printing
Every 3D printed object starts with a digital vision—this is where modeling 3D printing comes in. It’s the process of creating, optimizing, and preparing 3D digital models that are ready for 3D printing, bridging the gap between creative ideas and physical products. Whether you’re a hobbyist wanting to print a custom phone case, a product
After 3D printing a model—whether it’s a sandbox terrain, a drone frame, or a decorative part—you’ll often notice layer lines, rough edges, or small imperfections on the surface. These flaws can take away from the model’s appearance and functionality. That’s where 3D printing and polishing comes in: polishing is a critical post-processing step that smooths
Sandbox models are powerful tools—they help urban planners visualize city layouts, architects present design concepts to clients, and game developers create immersive in-game landscapes. But traditional sandbox model making is time-consuming: it requires hand-cutting materials, precise gluing, and hours of detailing. That’s where 3D printing sandbox models come in. By combining traditional sandbox design principles
In the world of manufacturing, sand casting has long been a go-to method for creating metal parts—from engine components to industrial valves. But traditional sand casting comes with big challenges: it takes weeks to make sand molds, limits design complexity, and costs a lot for small-batch production. That’s where the 3D printing sand casting process
Whether you’re printing a small drone frame, a custom phone case, or a large architectural model, getting the size of your 3D print right is critical to success. Print too big, and your model won’t fit in the printer. Print too small, and you might lose important details or compromise strength. But determining the right
Drones have become indispensable tools—from hobbyists capturing aerial photos to businesses conducting surveillance or rescue missions. But traditional drone manufacturing often comes with high costs, limited customization, and slow development cycles. That’s where 3D printing drones change the game. By leveraging additive manufacturing, 3D printed drones solve key pain points for both DIY enthusiasts and
