Custom CNC Stainless Steel Spare Part Turned Machining CNC Part Steel Turning Part

CNC Lathe Machining Service CNC Steel Part Turning Steel Metal Parts Production

Stainless Steel CNC Turning Parts

CNC machining, short for computer numerical control machining, is a widely used manufacturing

process that employs automated, high-speed cutting tools to shape designs from metal or plastic

stock materials.

Common CNC machines include 3-axis, 4-axis, and 5-axis milling machines, lathes, and routers.

These machines may employ different approaches to cut CNC parts, such as keeping the workpiece

stationary while the tool moves, keeping the tool stationary while rotating and moving the

workpiece, or moving both the cutting tool and workpiece simultaneously.

Experienced machinists operate CNC machines by programming tool paths based on the final

machined parts' geometrical specifications, which are derived from a CAD (computer-aided design)

model.

CNC machines exhibit the capability to precisely and repeatedly cut nearly any metal alloy and

rigid plastic, making them suitable for custom machined parts in a wide range of industries,

including aerospace, medical, robotics, electronics, and industrial applications.

Product Details

Material have three main categories: plastics, soft metals, and hard metals.

These materials are versatile and suitable for various machining applications.

Examples of materials used in CNC milling include aluminum, bronze, copper, ceramics, plywood,

various types of steel, stone, wood, and zinc, among others.

Certain materials, such as aluminum and mild steel, are favored by machinists due to their ease

of workability and excellent properties, making them industry standards for many applications.

Post-processing and surface finishes for CNC machining

CNC-machined parts as they emerge from the machine often exhibit visible tool marks, a feature

that may not align with your specific part requirements.

Fortunately, there exists a multitude of post-processing techniques aimed at enhancing the surface

appearance and elevating attributes such as wear resistance, corrosion resistance, and chemical

resistance.

Methods like anodizing, bead blasting, and powder coating present viable options for refining the

final presentation of your custom parts, allowing you to achieve the desired surface quality and

performance characteristics.

CNC Machining Applications

CNC machining is widely used throughout the aerospace, medical, automotive industries for its

ability to rapidly manufacture precise parts in production-grade materials.

Typical CNC parts, include:

1. Housings and enclosures
2. Brackets
3. Fixtures for manufacturing
4. Gears and bearings
5. Internal mechanical components
6. Medical instrumentation

Company Profile

FAQ's

1. Why Opt for CNC Machining?

CNC machining is a rapid, precise, and adaptable manufacturing process.

It stands out as a manufacturing solution that can deliver end-use parts efficiently, regardless

of the production volume, without the necessity of investing in costly hard tooling or elaborate

setups.

2. How long does it take to receive a quotation?

Typically, we aim to provide a response within one days upon receiving an RFQ.

If there is a delay in generating the quote, we will promptly inform you.

3. How soon can I receive my parts?

We can produce quality parts in as little as two weeks if you provide us with complete 2D and

3D CAD models.

However, more complex parts with special features may have longer lead times.

Request a quote to receive more precise lead times based on your specific project.

Regarding shipping, our primary method is air freight, which typically takes a few days for delivery

from China to Europe or North America.

4. Cost Considerations for CNC Machining Materials

The cost of materials in CNC machining can fluctuate significantly due to the extensive array

of available options.

Each material carries its unique price tag, and the inherent physical properties of each material

play a substantial role in determining machining costs.

For those seeking to manufacture metal components, Aluminum 6061 stands out as the most

cost-effective choice.

On the other hand, ABS ranks as the most budget-friendly option among materials.

As for the influence of machining complexity on costs, stainless steel serves as an illustrative

example.

Its inherent hardness, surpassing that of aluminum, renders it more challenging to machine,

consequently elevating the overall machining expenses.