Practical Exploration of Automation Technology in Machining Manufacturing

The machinery manufacturing industry serves as a pillar of the national economy, with its development level directly impacting the nation's overall competitiveness.

The machinery manufacturing industry serves as a pillar of the national economy, with its development level directly impacting the nation's overall competitiveness.

With the rapid development of rail transit, the comprehensive performance requirements for rail vehicle materials are increasingly demanding.

The demand for lightweighting in new energy vehicles has accelerated the adoption of large-sized aluminum die-cast components.

Slender shaft turning is a high-precision CNC machining process focused on controlling deformation, vibration, and thermal effects in

In many cases, milling toolpaths still follow traditional approaches. Failure to fully leverage the advantages of tool length results in redundant machining, where only the tool's minimal height is utilized.

To meet the lightweight requirements of aerospace components, titanium alloys are widely adopted in thin-walled structural parts. However, the inherent low stiffness of thin-walled structures, coupled with their difficult-to-machine characteristics, leads to issues such as deformation and vibration during manufacturing.

Electric mosquito coil heaters are common household items in people's daily lives. Their plastic casing components must be aesthetically pleasing, durable, and safe.

The CNC machining process is a fully digital, step-by-step manufacturing workflow that transforms CAD designs into high-precision parts through automated, subtractive machining.

High-speed dynamic milling has gained widespread adoption in rough machining applications due to its significant advantages: high efficiency, low machine tool load, minimal tool wear, and intelligent programming.

Currently, high-speed milling is widely applied in the aerospace manufacturing industry due to its unique advantages of high precision, high efficiency, low cutting forces, and superior surface quality.

Designing effective latching positions, stop grooves, and snap-fit structures is essential for ensuring the structural integrity, assembly efficiency, and durability of plastic and rubber components.

Efficient and precise tool path design is fundamental to modern machining, ensuring both productivity and high-quality surface finishes. From roughing to finishing, selecting the appropriate tools, feed rates, cutting depths, and clamping methods directly impacts machining accuracy, tool life, and workpiece integrity.