1. Basic Property: Why Unmodified 3D Printing ABS Lacks Conductivity? To answer the core question directly: unmodified 3D printing ABS (Acrylonitrile-Butadiene-Styrene Copolymer) is not conductive. This is determined by its intrinsic material structure and conventional performance, as detailed in the table below. Aspect Key Details Impact on Conductivity Molecular Structure Composed of three monomer units: […]
If you’re a product engineer or procurement professional working on optical products—like LED lighting fixtures, medical endoscopes, or display devices—the 3D printing of the prototype model of the light guide column is a game-changer. Light guide columns need precise structures to conduct light efficiently, and 3D printing lets you quickly turn designs into testable prototypes,
If you’re exploring metal 3D printing for prototyping, production, or specialized projects, one of the first questions you’ll ask is: What’s the cost per gram? The answer depends on multiple factors—from material type to production volume—but this guide breaks down the key details to help you calculate and optimize expenses. 1. Cost Per Gram of
If you’ve ever faced costly material waste, broken tools, or flawed parts due to untested CNC programs, CNC machining simulation technology is your solution. This advanced software-based tool lets you “test-run” machining processes before hitting the start button—but how does it work? Which industries benefit most? And how can you overcome its challenges? This guide
If you’re a product engineer or procurement professional working with 3D printing for prototypes—whether plastic enclosures, automotive parts, or medical components—moisture in 3D printing materials is one of the biggest threats to print quality. From nozzle clogs to rough surfaces, damp filaments can ruin hours of work. The good news is that mastering the 3D
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
CNC machining accuracy—defined by how closely a finished part matches its design specifications—is the backbone of high-quality manufacturing. It directly impacts part functionality, assembly fit, and long-term durability, whether you’re producing aerospace components or medical devices. This article breaks down the typical accuracy ranges of CNC machining across equipment types, key influencing factors, and practical
Surface roughness, measured by the Ra (Arithmetic Average Deviation) value, is a critical indicator of CNC machining quality—it directly impacts part functionality, wear resistance, and fit. Whether you’re making consumer goods, industrial components, or medical implants, knowing the achievable Ra range of CNC processing and how to control it is essential. This article breaks down
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
Silicone compounding and steel mold processes are two foundational technologies in mold manufacturing and product forming, each optimized for distinct production needs—one for fast, low-cost small-batch production and the other for high-precision, long-term mass manufacturing. Understanding their differences is critical for businesses to choose the right tooling, whether for prototyping, custom products, or industrial-scale production.
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;
