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Home
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About Us
- Certificate
- Case
-
Products
-
Optical Tables
- GZT Series High Rigidity
- POT-P Series Solid Vibration lsolation Damping
- POT-G Series Solid Vibration lsolation Damping With Hollow Cone Structure lsolators
- ZDT-P Series Pneumatic Vibration lsolation
- ZDT-B Series Pneumatic Vibration lsolation With Pendulum Rod
- Custom Vibration lsolation Solutions
- Optical Breadboard
- Optical Table accessories
-
Active Vibration lsolation Systems
- VCM series
- TA series
- LVH-T15 heavy-duty
- LHV series
-
Manual Positioning
- Manual Linear Stage
- Manual Vertical Lab Jack Stages
- Manual Vertical Positioning Stage
- Manual Rotation Stages
- Manual Goniometer Stages
- Manual Tilting Stages
- Assembled XY Micro positioning Stages
-
Motorized Positioning
- Motorized Linear Stage
- Motorized Integrated translation stage
- Motorized Vertical Stage
- Motorized Rotation Stages
- Motorized Goniometer
- Motorized Tilting Stage
- Assembled XY & XYZ Motorized Stage
-
Optical Tables
-
Blog
-
Service Support
- Download
- Catalogue
- User Manual
- Installation Video
-
Contact Us
Advanced Mold Manufacturing Technology in Modern Precision Engineering
Modern Advanced Mold Manufacturing Technology
Mold manufacturing technology has developed rapidly and has become an essential part of modern precision manufacturing. Today’s mold production integrates multiple advanced technologies, including CAD/CAM systems, laser rapid prototyping, precision forming, and ultra-precision machining.
These technologies significantly improve product quality, manufacturing efficiency, and system integration, making them crucial in industries that demand high accuracy, including optical table manufacturing and precision mechanical engineering.
Key Technologies in Modern Mold Manufacturing
Modern mold manufacturing integrates a wide range of advanced techniques such as:
- CAD/CAM mold design technology
- Laser rapid prototyping
- Precision forming technology
- Ultra-precision machining
- Finite element method (FEM) simulation
- Boundary element method (BEM) analysis
- Flow and cooling dynamic simulation
- Mold CIMS technology
- Digital numerical manufacturing (DNM)
- CNC machining technology
These technologies collectively cover nearly all areas of modern manufacturing.
Modern mold manufacturing is evolving toward:
- Information-driven production
- Flexible manufacturing systems
- Agile manufacturing processes
- System-level integration

High-Speed Milling: The Third-Generation Mold Manufacturing Technology
High-speed milling has become a major advancement in mold manufacturing. Compared with traditional machining methods, high-speed milling offers:
- Higher machining speed
- Excellent surface finish quality
- Low temperature rise (workpiece increases only about 3°C)
- Minimal thermal deformation
- Reduced cutting force
- Suitable for thin-wall components
- Effective machining of low-rigidity parts
- Capability to machine hardened materials (up to HRC60)
Because of these advantages, high-speed milling continues to evolve toward:
- Intelligent machining
- Agile production
- Integrated manufacturing systems
This makes high-speed milling widely recognized as the third-generation mold manufacturing technology.
EDM Milling: Green Manufacturing Technology
Electrical discharge machining (EDM) technology has also advanced significantly. Modern EDM milling replaces traditional shaped electrodes with high-speed rotating tubular electrodes.
This allows:
- 2D and 3D contour machining
- Elimination of complex electrode manufacturing
- Improved machining flexibility
- Reduced production time
- Higher precision cavity machining
This innovation represents a major development in EDM forming technology.
Safety and Environmental Considerations in EDM Technology
As EDM technology evolves, safety and environmental protection have become increasingly important. Modern EDM equipment now includes:
- Radiation protection systems
- Improved electrical shielding
- Enhanced operator safety features
- Environmental compliance design
International regulations, such as CE certification requirements, have made safety technology essential for equipment entering global markets.
One of the main challenges in EDM machining is electromagnetic interference and radiation, which can impact both safety and environmental performance. As global markets increasingly demand environmentally friendly equipment, "green" EDM technology is becoming a critical direction for future development.

Future Trends in Mold Manufacturing
Modern mold manufacturing will continue to advance toward:
- Intelligent manufacturing systems
- Integrated digital production
- Green manufacturing technologies
- Ultra-precision machining
- Automated production workflows
These developments will further improve precision manufacturing industries and support advanced equipment production.
Conclusion
Advanced mold manufacturing technology plays a vital role in modern precision engineering. With the integration of high-speed milling, EDM machining, CAD/CAM design, and simulation technologies, manufacturers can achieve higher accuracy, better efficiency, and improved product quality.
As manufacturing continues to evolve, these technologies will remain key drivers of innovation in precision equipment production.