Advanced Bending and Forming Technologies for Bimetallic Composite Pipes.

Area of Science:

• Materials Science and Engineering
• Manufacturing Technology

Background:

• Bimetallic composite pipes integrate diverse material properties for demanding applications.
• Key industries include petrochemical, power generation, marine, refrigeration, and automotive sectors.
• Growing demand for lightweight, high-strength, and corrosion-resistant solutions drives innovation.

Purpose of the Study:

• To comprehensively review advanced bending and forming technologies for bimetallic composite pipes.
• To identify and address challenges in pipe manufacturing, including wrinkling, wall thinning, springback, distortion, and interlayer separation.
• To evaluate emerging technologies for process optimization and defect reduction.

Main Methods:

• Combines theoretical analysis, experimental findings, and numerical simulations.
• Reviews existing literature on bending and forming processes.
• Evaluates the application of artificial neural networks and intelligent control systems.

Main Results:

• Identifies common defects and provides insights into their prevention strategies.
• Demonstrates the potential of AI and intelligent systems in enhancing bending accuracy and efficiency.
• Highlights the need for process optimization to meet stringent performance standards.

Conclusions:

• Advanced bending and forming technologies are critical for bimetallic composite pipe manufacturing.
• Addressing challenges like wrinkling and distortion is essential for quality.
• Emerging technologies offer significant improvements in accuracy, defect reduction, and efficiency for high-end applications.