In forging processing, post-forging deformation, surface oxidation, and internal porosity often lead to product scrapping. It is necessary to develop scientific handling strategies based on the causes of these problems, while strengthening preventive measures to reduce quality risks.

The quality of forgings directly determines the safety and stability of downstream equipment. Cracks, inclusions, and dimensional deviations are key defects that require strict control during processing, and a dual approach of "prevention + inspection" is necessary to build a solid quality defense line.

Dalian forging and casting, as the two core processes of metal forming, have essential differences in performance. Forging relies on "plastic deformation to reshape the structure" as its core, while casting relies on "liquid forming to fill the cavity". The different process paths have created significant advantages in key performance of forged parts.

Dalian forging processing uses external forces to cause plastic deformation of metal billets, reshaping the internal structure of materials and becoming the core process for improving component strength. The core logic is to break and reorganize metal grains through forging, eliminate defects such as porosity and looseness in the cast state, and achieve a significant increase in material density, laying the foundation for high-strength industrial components.

Forging manufacturing is a process that applies pressure to metal billets to induce plastic deformation, thereby obtaining parts with a certain shape, size, and mechanical properties. It plays a crucial role in modern industrial systems.

In the field of modern industrial manufacturing, forging has become the core process for high-end component production due to its excellent performance in strength, toughness, and reliability. These three major advantages stem from its unique processing principle and deep reshaping of metal materials.