Aluminum alloy parts have gained significant prominence in modern manufacturing due to their remarkable attributes like light weight, high strength, and excellent corrosion resistance. The fabrication of these parts demands meticulous techniques and approaches to guarantee their quality and functionality.

Let's take the milling process as an example. Consider the production of an aluminum alloy component for an aerospace application, such as a wing bracket. Milling machines are utilized to shape the workpiece by removing material. Special high-speed carbide cutting tools are employed, and the cutting speed might be set at around 1000 revolutions per minute to ensure a smooth surface finish. The feed rate and depth of cut are precisely controlled, perhaps at 0.2 millimeters per tooth and 2 millimeters respectively, to prevent overheating and tool breakage.

Turning is another essential technique. Imagine manufacturing an aluminum alloy shaft for an automotive engine. Lathes are used to rotate the workpiece while a cutting tool trims the material. To achieve the desired diameter and surface smoothness, the cutting speed could be around 800 revolutions per minute, and the feed rate might be 0.15 millimeters per revolution.

For drilling, let's consider creating holes in an aluminum alloy housing for electronic equipment. Special drill bits with a sharp point and flute design are used. The drilling speed might be set at 1500 revolutions per minute, and coolant is continuously applied to prevent the drill bit from overheating and to ensure clean holes without burrs.

Surface treatment is crucial too. For instance, in the production of aluminum alloy bicycle frames, anodizing is commonly used. A layer of oxide is formed on the surface, not only enhancing the corrosion resistance but also giving the frame a vibrant color.

In the realm of precision machining, take the manufacturing of an aluminum alloy mold for injection molding. CNC machines are employed to achieve tight tolerances within a few microns. The programming of the CNC machine is highly precise, dictating the exact paths and movements of the cutting tools.

Throughout the processing, quality control is paramount. Using tools like micrometers and CMM, measurements are taken at multiple stages to ensure the parts adhere to the strict specifications.

In summary, the processing of aluminum alloy parts involves a blend of diverse techniques, each finely tuned with specific parameters and examples, to yield components that meet the exacting standards across various industries.