Warm Forging

Precision metal forming demands processes that balance material integrity with complex geometries. Warm forging, performed at temperatures typically between 650°C and 950°C (1200°F to 1750°F), offers a compelling middle ground. It bridges the gap between cold forging and traditional Hot Forging, providing superior dimensional accuracy and surface finish compared to its hotter counterpart while requiring significantly less forming force than cold forging. This makes it an ideal choice for producing high-strength, near-net-shape components for demanding industries like automotive and aerospace. Our advanced manufacturing capabilities are complemented by state-of-the-art equipment, including our proprietary hot forging hydraulic press systems, which deliver the precise, controlled force necessary for consistent warm forging results. We specialize in a wide range of materials, from alloy steels to specialized hot forging aluminum alloys, ensuring optimal grain flow and mechanical properties for every application. The resulting Hot Forged Parts exhibit excellent strength-to-weight ratios, enhanced fatigue resistance, and are ready for minimal secondary machining, reducing overall production waste and cost.

The <产品名字> process is defined by rigorous technical parameters that ensure repeatable quality and performance. Our engineering team meticulously controls every variable, from billet heating in precisely calibrated furnaces to the final forming stage. Below are the key specifications and material capabilities that define our warm forging service.

Key Process Parameters

• Temperature Range: 650°C - 950°C (1200°F - 1750°F)
• Typical Forging Pressure: 600 - 1200 MPa
• Dimensional Tolerance: ±0.3 mm to ±0.5 mm (as-forged)
• Surface Finish (Ra): 3.2 - 6.3 μm
• Common Weight Range: 0.5 kg to 25 kg

Material Specifications & Applications

Our integrated quality assurance protocol includes in-process monitoring of temperature and force, followed by coordinate measuring machine (CMM) inspection and non-destructive testing (NDT) to validate internal integrity. This data-driven approach guarantees that every component meets the specified mechanical properties and geometric requirements.