In the world of sheet metal fabrication, finding a cutting method that balances precision, versatility, and efficiency is key. Waterjet cutting stands out as a game – changer, offering solutions that many other processes can’t match. Whether you’re working on small – batch custom parts or large – scale production runs, understanding how waterjet cutting […]
If you’re a CAD designer working on CNC machining parts, small design errors can lead to big problems: broken tools, wasted material, or parts that don’t fit. The good news? Most mistakes are easy to avoid once you know what to look for. This guide breaks down the 6 most common CNC design blunders, with real examples,
If you’re involved in making parts—whether for aerospace, medical devices, or cars—CNC machining is the backbone of precise, consistent production. But with so many machine types, tools, and materials to choose from, it’s easy to feel overwhelmed. This guide breaks down everything you need to know about CNC machining: how it works, the machines you’ll use,
If you’re designing parts for CNC machining—whether for CNC milling or lathe work—size limitations aren’t just “rules to follow.” They’re the key to avoiding costly reprints, delayed projects, and parts that don’t fit your needs. This guide breaks down exactly what you need to know about CNC size constraints, with real-world examples, data, and tips to
If you’re designing parts for Laser Sintering Molding (SLS)—a top-tier powder bed fusion 3D printing tech—great design isn’t just “nice to have.” It’s the difference between a part that cracks mid-use and one that’s strong, precise, and cost-effective. This guide breaks down every critical design rule for SLS, with real-world examples, data, and tips to fix
If you work with MJF (Multi Jet Fusion) or SLS (Selective Laser Sintering) 3D printing, you know that the printed part isn’t the final product. Post-processing is key to unlocking their full potential—whether you need a smooth surface, better water resistance, or electrical conductivity. This guide breaks down every critical post-processing step for MJF and
3D printing flexible, rubber-like parts used to be a challenge—but not anymore. Today, a range of flexible materials suitable for 3D printing lets you create everything from squishy toy parts to durable automotive components. Whether you’re a hobbyist making a custom phone grip or a manufacturer designing medical devices, this guide will help you pick the right
Gone are the days of complex, multi-step manufacturing that takes weeks to turn a design into a physical part. The 3D printing one-step process has changed the game: it transforms a digital 3D (CAD) model directly into a tangible prototype or end-use part—no extra tooling, no assembly lines, no long waits. Whether you’re a small
3D printing has transformed manufacturing by turning complex CAD models into physical parts quickly and affordably. But the rise of this technology has also brought a big problem: most 3D printing materials are non-biodegradable plastics. These plastics pile up in landfills and harm the environment if not disposed of properly. Thankfully, the industry is shifting
Sheet metal bending is the backbone of turning flat metal sheets into functional, 3D parts—from electrical enclosures to automotive components. As an engineer or buyer, getting bending design right avoids costly reworks, ensures part durability, and speeds up production. This guide breaks down sheet metal bending processes, critical design rules, and real-world applications, using insights from
Choosing the right 3D printing material is the key to turning your design ideas into high-quality, functional parts. Whether you’re an engineer working on automotive components or a buyer sourcing materials for medical devices, understanding how to match materials to your project’s needs can save time, reduce costs, and ensure success. This guide breaks down
AISI 316H stainless steel stands out as a high-carbon variant of the popular 316 alloy, designed for extreme high-temperature service. Its unique composition and mechanical properties make it a top choice for industries like power generation, petrochemicals, and refining. This guide breaks down everything you need to know—from chemical specs to real-world applications—to help you
If you’re an engineer, manufacturer, or buyer searching for metal that balances precision, strength, and versatility, cold rolled steel is your solution. From sleek automotive body panels to durable appliance parts, it’s the backbone of countless products—thanks to its smooth surface, tight tolerances, and reliable performance. This guide breaks down everything you need to know to choose,
If you’re a procurement specialist or product engineer, adding color to 3D printed parts can boost product appeal, improve brand recognition, or even help with part identification (like color-coding components in machinery). But with so many color 3D printing options available, choosing the right one for your project—whether it’s a consumer product casing or an
If you’re a procurement specialist or product engineer, keeping CNC machining costs in check is key to staying on budget and delivering competitive products. But CNC costs don’t exist in a vacuum—they’re shaped by everything from the machine you use to the number of parts you order. This guide breaks down the 5 core factors
If you’re a procurement specialist or product engineer, choosing the right material for CNC machining can save you time, cut costs, and ensure your parts meet industry standards. Aluminum is one of the most popular choices—second only to steel in CNC machining frequency—thanks to its unique mix of strength, light weight, and ease of processing.
