3D Printing

If you’re exploring 3D printing options for hobbies, small-scale projects, or industrial production, understanding the differences between desktop resin light curing (SLA) 3D printing and industrial-grade resin light curing (SLA) 3D printing is key. Both fall under the light-curing category of additive manufacturing, using light-curing thermosets to build parts with precision. But their capabilities, costs, […]

When you’re 3D printing parts—whether for prototypes or functional components—getting the right size matters. Even a tiny dimensional error can break a product, delay a project, or waste money. That’s where 3D printing tolerances come in. This guide breaks down what tolerances are, the key factors that affect them, how different 3D printing technologies stack

When it comes to 3D printing, strength and durability are make-or-break factors for many projects—whether you’re creating automotive parts, aerospace components, or industrial tools. Not all 3D printing materials are built to handle heavy loads, high temperatures, or harsh chemicals. That’s why we’ve put together this guide to 10 high-strength 3D printing materials from industry

Just a few years ago, 3D printing (a core form of additive manufacturing) felt like an unreachable dream. Even in the industrial world, it was rarely used for prototyping, let alone everyday life. But today, this technology has woven itself into the fabric of consumer life—from the cases of our electronic devices to unique handicrafts

Whether you’re an automotive engineer testing a new sensor housing or a medical device designer refining a surgical tool, SLA resin 3D printing prototypes offer unmatched precision for rapid iteration. Unlike FDM (Fused Deposition Modeling), SLA uses UV light to cure liquid photoresin layer by layer—resulting in smooth surfaces, tight tolerances (as low as ±0.1mm), and complex

If you’re an engineer working on complex part designs or a buyer sourcing high-precision metal prototypes, SLM metal 3D printing prototype technology is a game-changer. Unlike traditional manufacturing, Selective Laser Melting (SLM) creates detailed, durable metal models from powders—no molds needed. This guide breaks down everything you need to know, from how it works to real-world uses,

If you’re an engineer testing product designs or a buyer sourcing cost-effective prototypes, the FDM process 3D printed nylon prototype model is a game-changer. It blends speed, affordability, and flexibility—making it ideal for industries from automotive to consumer goods. This guide breaks down everything you need to know, with real cases and hard data to help you

If you’re an engineer aiming to create lightweight, complex aluminum parts or a buyer searching for a fast, precise prototyping solution, SLM aluminum alloy prototype 3D printing is your game-changer. Selective Laser Melting (SLM) turns digital designs into high-quality aluminum prototypes—solving traditional manufacturing pain points like design limits and long lead times. Below, we break down the

If you’re an engineer struggling to turn complex stainless steel designs into physical parts, or a buyer looking for a fast, precise prototyping solution, SLM stainless steel 3D printing prototype technology is your answer. Selective Laser Melting (SLM) transforms digital models into high-quality stainless steel prototypes—solving traditional manufacturing pain points like design limits and long lead times.

In 3D printing, why do even high-quality resin prints sometimes lack strength or smoothness right after printing? The answer lies in 3D printing secondary curing—a critical post-processing step that unlocks the full potential of printed parts. Unlike primary curing (which happens during printing), secondary curing uses light or heat to further harden and refine parts, solving

In 3D printing, why do two users get drastically different results with the same printer and material? The answer lies in 3D printing parameters—the hidden “dials” that control everything from surface smoothness to print time. Choosing the wrong settings can lead to warped parts, layer separation, or wasted material. This article breaks down the 7 most

In 3D printing, why do manufacturers and designers turn to 3D printing ABS+PC instead of using pure ABS or pure PC? The answer lies in this blend’s ability to solve key pain points of single materials—like ABS’s poor heat resistance or PC’s high printing difficulty—by combining their strengths. This article breaks down what ABS+PC is,

Why are artists, designers, and cultural institutions turning to 3D printing crafts? Unlike traditional handmade crafts that rely on skill and time, 3D printing transforms digital ideas into physical art with unmatched flexibility—solving pain points like limited design scope, slow production, and difficulty replicating complex details. This article breaks down how 3D printing works for crafts,

Nothing is more frustrating than finishing a 3D print—only to find its surface bumpy, layered, or uneven. Whether you’re making a prototype, a decorative piece, or a functional part, smoothness matters for both look and performance. The good news? Most surface issues aren’t hard to fix. This article breaks down 3 core solutions (material selection,

3D printing has revolutionized prototyping and small-batch production, but high costs often hold back enthusiasts and small businesses. The good news? You don’t need to compromise on quality to save money. This article breaks down actionable, low-cost 3D printing methods that cover design, materials, efficiency, and equipment care—helping you reduce expenses without sacrificing results. 1.

In today’s fast-paced industrial world, traditional manufacturing often struggles with long lead times, high waste, and limited design flexibility—especially for complex parts. But 3D printing industrial parts (also called Additive Manufacturing, AM) solves these pain points by building components layer by layer from 3D CAD data. Whether you’re an aerospace engineer needing lightweight turbine parts