Die Casting Aluminum Parts For Attractive UAV Parts Agriculture Drone Sprayer Parts
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Die casting aluminum parts are high-precision metal components formed by injecting molten aluminum alloy into steel molds under high pressure (10–175 MPa). They deliver lightweight, durable, dimensionally stable parts with smooth surfaces, ideal for mass production of complex, thin-walled structures across automotive, electronics, and industrial sectors.
Die casting aluminum parts are metal fabrications produced via high-pressure die casting (HPDC). Molten aluminum alloy is rapidly injected into precision steel dies, solidifying quickly to form near-net-shape components. The process yields parts with tight tolerances (±0.05 mm), thin walls (1.5–2.5 mm), and consistent repeatability, minimizing secondary machining.




A North American automotive Tier 1 supplier needed lightweight, high-strength transmission housings for electric vehicles (EVs), requiring 20% weight reduction vs. steel assemblies, ±0.05 mm tolerances, and 1.2 mm thin walls. We proposed ADC12 die casting aluminum parts with Magmasoft flow simulation for mold optimization, integrating 12 internal mounting bosses and cooling channels into a single casting to eliminate 8 sub-components. Precision multi-cavity tooling with T6 heat treatment (480°C solutionizing + 200°C aging) enhanced tensile strength to 280 MPa. We implemented 100% dimensional inspection via CMM and X-ray testing to ensure zero porosity in critical load zones.
The solution achieved 22% weight reduction (from 3.2 kg to 2.5 kg) vs. steel, meeting EV lightweight targets. Dimensional accuracy held ±0.04 mm, exceeding specs and cutting assembly time by 35%. Production cycle time reached 45 seconds/part, supporting 500,000 annual units with scrap rates <3%. T6 treatment boosted fatigue resistance by 30%, passing 1,000-hour salt-spray tests. Integrated design reduced part count by 40%, lowering total production costs by 28%. The client validated 15% improved fuel efficiency in test vehicles, adopting the design for 3 EV models, generating $2.1M annual cost savings.

