Whether you’re a hobbyist making small prototypes or a business sourcing industrial parts, knowing how to calculate the unit price of 3D printing is essential to avoid overspending. The unit price isn’t a fixed number—it depends on materials, printing time, technology, and more. This guide breaks down the 5 most common calculation methods, key influencing […]
If you’re planning to use aluminum 3D printing for parts—whether for prototyping, automotive components, or electronic enclosures—understanding how to calculate the price is crucial to staying on budget. The cost of aluminum 3D printing isn’t a one-size-fits-all number; it depends on material use, technology type, part complexity, and more. This guide breaks down the key
If you’ve ever noticed subtle diagonal streaks on your 3D printed parts, you’re not alone. These marks—known as 3D printing twill—are a common challenge, but they’re far from unbeatable. This guide breaks down what causes twill, how to fix it, and how different industries adapt to it, so you can achieve smoother, higher-quality prints. What
Choosing the right material for plastic prototype molds directly impacts the mold’s durability, production speed, precision, and cost. There is no “one-size-fits-all” option—materials vary based on project needs like production quantity, part complexity, precision requirements, and budget. This article breaks down the most common materials, their pros and cons, use cases, and a step-by-step guide
UV printing and 3D printing are both advanced manufacturing technologies, but they serve entirely different purposes. Labeling one as “better” without context is misleading—their value depends on your specific needs, such as whether you’re creating 2D surface designs or 3D physical objects. This article breaks down their core differences, advantages, use cases, and limitations to
Have you ever wondered how complex, high-precision plastic parts—like medical device components or automotive dashboards—are made? The answer often lies in CNC processing plastic parts. This technology combines computer control with mechanical precision to turn raw plastic into functional, detailed components. Whether you’re a manufacturer looking to scale production or a designer needing reliable parts,
Have you ever wanted to 3D print a large model (like a 60cm tall robot) or a complex one (like a detailed aircraft with moving parts) but hit a wall? Standard 3D printers have size limits, and complex models often need tons of support material—leading to failed prints or wasted money. 3D printing split models
If you’re sourcing CNC-machined parts for your project, understanding how quotations are calculated is key to avoiding overpaying or misinterpreting costs. A CNC machining quotation isn’t a random number—it’s a detailed sum of tangible factors like material use, machining time, and labor. This guide breaks down the calculation process, core influencing factors, and practical examples
In precision manufacturing, CNC (Computer Numerical Control) machines are the backbone of efficient and accurate production. However, many engineers, programmers, and manufacturers struggle with understanding and using CNC machining formats correctly—leading to errors in program execution, compatibility issues with CAD files, and delays in production. This article breaks down the core components of CNC machining
CNC (Computer Numerical Control) machining relies heavily on the right choice of metal materials to achieve high precision, durability, and performance. Different metals have unique properties that make them suitable for specific industries—from aerospace to electronics, medical devices to automotive. Below is a detailed breakdown of the most common metal materials for CNC machining, their
CNC machining labor costs are a critical component of overall manufacturing expenses, directly impacting project budgets and competitiveness. Unlike fixed costs (e.g., equipment depreciation), labor costs fluctuate based on process complexity, production volume, regional differences, and material properties—making them both variable and manageable. This article breaks down the core factors driving CNC machining labor costs,
The automotive die casting process has become a cornerstone of modern automotive manufacturing, enabling the mass production of high-precision, complex components that balance lightweight design, strength, and cost efficiency. By injecting molten metals (e.g., aluminum, magnesium alloys) into precision molds under high pressure, this process addresses the industry’s demand for fuel-efficient, durable vehicles. This article
CNC rapid machining has redefined modern manufacturing by merging advanced process optimization, intelligent equipment, and data-driven control—delivering fast, precise, and cost-effective production of complex parts. Unlike traditional CNC machining, it prioritizes minimizing cycle times without compromising accuracy, addressing the demand for high-volume, flexible manufacturing across industries. This article breaks down its core technologies, key benefits,
The titanium alloy die casting process has emerged as a transformative technology in high-end manufacturing, addressing the demand for lightweight, high-strength components in aerospace, automotive, and new energy sectors. By injecting molten titanium alloy into precision molds under high pressure, this process achieves near-net forming of complex parts—overcoming the limitations of traditional titanium processing (e.g.,
Aluminum die casting has become an indispensable manufacturing process in modern industry, leveraging the lightweight, high-strength, and corrosion-resistant properties of aluminum alloys. By injecting molten aluminum alloy into precision molds under high pressure, it produces complex, high-precision components efficiently—catering to the demands of large-scale production across automotive, electronics, and aerospace sectors. This article breaks down
CNC engraving machining has revolutionized precision manufacturing by merging computer numerical control with high-speed tool operation, enabling the creation of intricate, high-accuracy parts across diverse materials. Unlike traditional manual engraving, it delivers consistent results, handles complex structures, and adapts to both industrial mass production and personalized customization. This article breaks down its core mechanics, key
