The determining factors of forging quality involve multiple links and key technical parameters. The following is a systematic summary:

Forging technology is a processing method that applies external force to cause plastic deformation of metal materials in a solid state, thereby obtaining the desired shape, size, and properties. Improving the efficiency and product quality of forging processes can be approached from the following aspects:

　　The forging process changes the internal structure of metals through plastic deformation, significantly improving the strength, toughness, and fatigue life of materials. The following are the specific impact mechanisms, quantitative data, and typical application cases of forging technology on material strength.

The forging process achieves effective metal forming through plastic deformation, which not only improves material properties such as strength and toughness, but also produces quasi dense parts with complex shapes. The following are the key technologies, advantages, and typical applications of forging technology to achieve effective forming.

The aerospace industry has very high requirements for the strength, lightweight, and high temperature resistance of components, and forging technology has become a key manufacturing process due to its dense structure and excellent mechanical properties. The following are specific applications and technological breakthroughs:

Reducing energy consumption in the forging process requires starting from multiple dimensions such as process optimization, equipment upgrading, heat recovery, and management improvement, combined with advanced technology and lean management, to achieve energy conservation and cost reduction. The following are specific measures and data support: