The Role of Forging in Modern Manufacturing

Forging subjects metal blanks to compressive force to induce plastic deformation and optimize their mechanical properties. This process eliminates internal porosity and voids within the metal, significantly enhancing the mechanical performance of finished forgings.

Forgings cover the following application categories:

General industrial forgings: used in civilian manufacturing sectors, including machine tools, agricultural machinery, and bearing production.

Hydraulic generator forgings: main shafts, intermediate shafts, and related components.

Thermal power plant forgings: rotors, impellers, retaining rings, main shafts, and other components.

Metallurgical machinery forgings: cold rolling rolls, hot rolling rolls, herringbone gear shafts, and more.

Pressure vessel forgings: cylinder shells, nozzle ring flanges, end closures, and other critical parts.

Marine forgings: crankshafts, stern shafts, rudder stocks, thrust shafts, intermediate shafts, etc.

Forging and pressing equipment components: hammer heads, hammer rods, hydraulic press columns, cylinder blocks, as well as supports and cylinders for wheel axle pressing machines.

Die block forgings: primarily for forming dies matched with hot die forging hammers.Automotive forgings: left and right steering knuckles, front cross members, vehicle couplings, etc. Statistics indicate that forgings constitute approximately 80% of an automobile’s total weight in terms of critical load-bearing components.

Locomotive forgings: axles, wheels, leaf springs, locomotive crankshafts, and other parts. Forged components account for approximately 60% of a locomotive’s overall mass in critical applications.

Military forgings: gun barrels, breech bodies, breechblock carriers, towing rings, and ordnance fittings. Forged parts make up approximately 65% of a tank’s total weight in critical structural and functional components.