Aluminum Die Casting Parts For Automobile Industry

Introduction

Aluminum Die Casting Parts for the Automobile Industry are primarily crafted from aluminum alloy materials through precise die-casting processes. These components encompass engine parts, chassis components, body structure parts, and auxiliary system components, among others, and find extensive use in passenger cars, commercial vehicles, new energy vehicles, and various other sectors.

Features

Lightweight

The density of aluminum alloy materials used in Aluminum Die Casting Parts for the Automobile Industry is low, approximately one-third that of steel. The incorporation of aluminum alloy die-casting parts can reduce automotive weight by 30% to 40%, thereby significantly enhancing fuel efficiency and extending the range of electric vehicles.

Corrosion Resistance

The aluminum alloy material in Aluminum Die Casting Parts for the Automobile Industry naturally forms a dense oxide film on its surface, effectively blocking the erosion of corrosive media (such as water, oxygen, and salt spray) and safeguarding the base material from damage. The corrosion rate of aluminum alloy in a salt spray environment is much lower than that of ordinary steel, boasting corrosion resistance over 10 times that of steel.

High Precision

Aluminum Die Casting Parts for the Automobile Industry utilize advanced mold design and precision die-casting techniques to achieve high-precision manufacturing. By precisely controlling mold dimensions and die-casting parameters, product size accuracy and consistency are ensured. The dimensional tolerance of these parts can be maintained within ±0.1mm, and under specific high-precision requirements, the tolerance can even be further reduced to ±0.005mm.

Applicable Processing Technology

Lathe Processing

Lathe processing involves rotating the workpiece and using a turning tool for cutting. It is suitable for processing the cylindrical, conical, and end surfaces of the crankcase, ensuring a smooth and flat outer surface.

Milling

Milling employs a milling cutter to cut the workpiece, making it suitable for processing flat surfaces, inclined surfaces, and grooves, thereby improving the manufacturing efficiency and quality of the crankcase.

Boring Processing

Boring processing utilizes a boring tool to enlarge the holes in the workpiece, making it suitable for processing holes within the crankcase, such as crankshaft holes and bearing holes, to ensure the dimensional and shape accuracy of the holes.

Product Description

2. Processing flow chart in Lemo: