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The VMT blog is dedicated to sharing our hard-earned knowledge in prototype manufacturing. We hope these articles will help you optimize your product designs and gain deeper insight into the world of rapid prototyping. Enjoy the read!
Get an Instant QuoteStruggling to decide between CNC machining and manual machining for your next project? You’re not alone. Many product designers, engineers, and manufacturers face the same challenge—balancing precision, cost, flexibility, and speed. Choosing the wrong method can lead to delays, unnecessary expenses, and compromised quality. Whether you're developing a prototype or planning large-scale production, understanding the core differences and advantages of each approach is key. The good news? There's a clear path forward when you understand how each process works and where it excels.
There are over 15 types of turning operations, including facing, taper turning, grooving, boring, and threading. Each method supports different shapes, tolerances, and materials. Choosing the correct type depends on your part’s geometry, surface finish requirements, and production volume. CNC turning services can integrate multiple operations to achieve high precision and production efficiency.
Milling operations use rotating cutting tools to remove material from a stationary workpiece. There are many types of milling operations—such as face, slot, end, and gear milling—each designed to achieve specific shapes, dimensions, and finishes. CNC milling improves precision and productivity by automating these operations through computer-controlled machines.
Struggling to decide which machining process is right for your manufacturing project? You’re not alone. With so many machining technologies available—from traditional turning to laser beam machining—the choices can be overwhelming. Without the right understanding, you risk wasting time, money, and resources. But here’s the good news: this guide will simplify the complex world of machining operations and help you identify the best solution for your specific needs.
When selecting materials for demanding environments, stainless steel is often the go-to choice. But even within the same series—like 316 vs. 316L—making the right decision isn’t always simple. You may struggle to decide which offers better corrosion resistance, weldability, or long-term value. Choosing the wrong type could mean premature failure, higher costs, or poor performance.
Aluminum alloys are widely used in various industries due to their excellent strength-to-weight ratio, corrosion resistance, and machinability. Among these, 7075 aluminum stands out as one of the strongest aluminum alloys, often compared to mild steel in terms of strength. It is a high-strength, heat-treatable alloy primarily used in aerospace, automotive, and structural applications.
In the world of precision engineering and CNC machining, achieving accurate part dimensions is essential. Geometric Dimensioning and Tolerancing (GD&T) is a universal engineering language that ensures parts are manufactured correctly and fit together seamlessly. Without a standardized way to define tolerances, inconsistencies can lead to assembly issues, quality control problems, and increased production costs.
Engineering drawings are the backbone of manufacturing and CNC machining, serving as the universal language between designers, engineers, and machinists. However, poorly executed drawings can lead to miscommunication, machining errors, and increased production costs.
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