5-Axis CNC precision machining represents the pinnacle of modern subtractive manufacturing, revolutionizing how complex three-dimensional parts are produced by integrating three linear axes (X/Y/Z) with two rotary axes (A/C or B). Unlike traditional 3-axis machining, it enables the tool to adjust angles freely in space, eliminating the need for multiple clamping setups and unlocking unprecedented […]
Die casting aluminum medium plate is a specialized aluminum component produced via high-pressure die casting, combining aluminum’s inherent advantages (lightweight, corrosion resistance) with the precision and structural integrity of die casting. Unlike standard aluminum plates, it features customizable thicknesses (typically 2–20 mm), complex structural capabilities, and strict performance metrics—making it indispensable for industries ranging from
Precision die casting aluminum has emerged as a cornerstone of high-end manufacturing, merging advanced metal forming technology with aluminum’s inherent advantages (lightweight, corrosion resistance) to produce components with exceptional precision and performance. Unlike conventional die casting, it delivers dimensional accuracy within 0.05 mm, surface roughness (Ra) as low as 1.6 μm, and strict shape/position tolerances—meeting
The shrinkage rate of die casting aluminum—a key parameter in precision manufacturing—refers to the dimensional reduction of molten aluminum as it cools and solidifies in a die casting mold. Unlike fixed material properties (e.g., density), it is a dynamic value shaped by alloy composition, mold design, process parameters, and part structure. Uncontrolled shrinkage leads to
Internal right angles in CNC machining—theoretically 90° sharp corners in workpiece cavities or grooves—pose a unique challenge due to tool geometry limitations. Conventional rotating tools leave unavoidable fillet radii (R-values), which can compromise part functionality, assembly precision, and design compliance. This article breaks down the core challenges, mainstream technical solutions, key influencing variables, and practical
Heat treatment of cast aluminum alloys is a pivotal manufacturing process that transforms the mechanical and structural properties of cast aluminum, addressing inherent flaws from solidification (e.g., residual stress, component segregation) and unlocking performance tailored to industrial needs. By precisely controlling heating, heat retention, and cooling cycles, this process enhances strength, improves dimensional stability, and
CNC precision milling has become a backbone of modern high-precision manufacturing, leveraging computer numerical control (CNC) technology to achieve micron-level accuracy in shaping diverse materials. Unlike conventional milling, it combines automated tool paths, multi-axis linkage, and real-time parameter adjustment to produce complex, consistent parts—critical for industries like aerospace, medical devices, and electronics. This article breaks
Precision aluminum die casting stands as a cornerstone of advanced manufacturing, merging high-pressure forming, precise mold design, and material optimization to produce complex, high-accuracy aluminum parts. Unlike traditional die casting, it prioritizes dimensional precision (tolerance ±0.1–0.2 mm) and surface quality (Ra 1.6–6.3 μm), making it indispensable for industries like automotive, electronics, and aerospace. This article
If you’re using 3D printing for aluminum alloy parts—whether for aerospace components, industrial fixtures, or custom accessories—understanding the cost per gram is critical for budgeting. Unlike resin or PLA 3D printing, 3D printed aluminum alloys balance strength and lightweight properties but come with higher costs, ranging from 70 RMB/gram for mass-produced parts to 450 RMB/gram
In mechanical manufacturing, why do engineers prefer CNC machine tool processing inner hole keyway over traditional methods like ordinary lathes? The answer lies in CNC’s ability to solve critical pain points—such as low accuracy from manual operation, slow efficiency, and poor adaptability to complex workpieces—that hold back traditional inner hole keyway machining. This article breaks down what
If you’re using 3D printing for stainless steel parts—whether for industrial components, aerospace parts, or custom accessories—understanding the cost per gram is critical for budgeting. Unlike resin or PLA 3D printing, 3D printing stainless steel is far more expensive, with costs ranging from 60 RMB/gram for mass-produced parts to 400 RMB/gram for small-batch, high-precision components.
In sheet metal manufacturing, achieving consistent, accurate bends is critical—yet traditional manual bending often struggles with human error, inconsistent angles, and slow throughput. The CNC bending machining process solves these pain points by combining computer-controlled precision with automated operation, making it ideal for mass-produced parts (like automotive brackets) and custom components (such as electrical enclosures).
If you’re using resin 3D printing (e.g., SLA, DLP technologies) for high-detail prototypes, medical models, or functional parts, understanding the cost per gram is critical for budgeting. Unlike FDM printing, resin 3D printing costs aren’t fixed—they range from 0.1 RMB/gram for basic applications to 10 RMB/gram for high-end, specialized parts. This guide breaks down the
If you’re using 3D printing for prototypes, functional parts, or small-batch production, understanding the cost per gram of 3D printing plastic is essential for budgeting. The cost isn’t fixed—it ranges from 0.01 RMB/gram for basic PLA to 5 RMB/gram for high-performance PEEK—shaped by material type, printing technology, and service choices. This guide breaks down core
If you’ve just finished orthodontic treatment, choosing a 3D printed tooth retainer means balancing cost, comfort, and durability. The price of 3D printed tooth retainers isn’t fixed—it ranges from 50 RMB/pair for basic online-made options to 1,000 RMB/pair for clinic-customized, medical-grade ones. This guide breaks down the key price drivers, provides practical references, shares tips
3D printing wheels—whether for cars, bicycles, or small robotics—blend flexibility, sustainability, and performance that traditional manufacturing can’t match. Unlike cast or machined wheels, 3D printed versions let you customize spoke patterns, reduce weight, and cut material waste. But choosing the right materials, fixing design flaws, or scaling production can be tricky. This article breaks down 4
