Though China’s machining industry has advanced significantly, obvious gaps in machining precision— a core manufacturing competitiveness indicator—remain between China and developed countries like Germany, Japan
In the intelligent transformation of precision machining production lines, the most difficult technologies to overcome are concentrated in four aspects: high-precision real-time control, multi-source data
Machining accuracy refers to the degree of conformity between the actual geometric parameters (dimensions, shape, and position) of a machined part and its ideal geometric
Thin-walled parts are widely used in aerospace, automotive, and medical devices due to their excellent strength-to-weight ratio. However, their low stiffness and high flexibility present
Development of New Energy Against the backdrop of global energy transition, the new energy industry is advancing towards technological breakthroughs. Industrial ceramics, due to their
In the field of mechanical processing, the CNC lathe is undoubtedly a core piece of equipment that cannot be bypassed. It is not a
Manufacturing—Thin-Walled Component Machining Thin-walled components, renowned for their exceptional lightweight properties and high structural rigidity, find extensive applications across aerospace, automotive, medical, and electronics industries.
AI-Native Machining and Real-Time Control AI is moving from isolated monitoring to becoming integral to machine control. By using real-time sensor feedback on vibration, load,
I. Control at the Casting Source (The quality of the blank determines the upper limit) The upper limit of machining accuracy is often constrained by
Robot-assisted precision machining combines industrial robots with machining tools (spindles, grinders, lasers, etc.) to perform subtractive manufacturing operations with increasing levels of accuracy. While traditional