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CNC Part Supplier Stainless Steel Machined Parts

CNC machining encompasses a wide array of machinery, all of which employ computer-controlled

machine tools to eliminate material from a workpiece.

The utilization of computer control imparts CNC machining with a remarkable advantage in terms

of speed, precision, and accuracy when compared to traditional machining methods.

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Virtually any sturdy and solid material can be subjected to CNC machining,

including mild and stainless steels, aluminum, brass, copper, magnesium, titanium, and a

wide array of engineering plastics.

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.

Application

The possibilities for CNC machining applications are virtually limitless.

Here are a few examples:

1. Woodworking: CNC machining is utilized in the production of wooden furniture to save time

and reduce costs. It enables the creation of intricate furniture designs that would be impractical

to craft manually.

2. Lettering and Engraving: CNC machines can perform precise engraving tasks, whether for

artistic purposes or to mark serial numbers and patterns on surfaces.

3. Electronics: CNC machining is essential in the electronics industry for tasks like creating

mounting holes in printed circuit boards and machining heat sinks for electrical components.

4. Pharmaceuticals: CNC machines manufacture precise equipment for pharmaceutical production,

including metering pumps, dispensing nozzles, and packaging machinery.

5. Food and Beverage: The fast-moving consumer goods industry relies on custom

material-handling machinery with CNC-machined components. Additionally, CNC machining is

used to create molds for injection-molded food packaging materials.

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FAQ's

1. How long does delivery time and quotation take?

Our delivery time and quotation process are influenced by the complexity of your project.

For low-complexity parts, expect a lead time of 2-3 days.

As complexity increases, the lead time can range from 2-5 days.

High-complexity parts may require a lead time of 5-15 days.

Quotation turnaround time varies based on complexity as well.

For straightforward designs, we can provide a quote within 1 business day or even faster.

However, for more intricate projects, the quoting process may take 3 or more business days.

If you have a design that needs assessment and a quote from our team, please don't hesitate to

contact us.

2. How to Accelerate CNC Manufacturing?

Various elements influence the pace of manufacturing, encompassing part design and desired

surface roughness.

Incorporating fillets instead of sharp corners serves as an excellent illustration of how design

adjustments can expedite the machining process.

This choice enables the production of the part using standard tools, eliminating the need for

tool changes during machining.

3. How to Lower the Cost of Machined Parts?

The expenses associated with CNC machining primarily encompass machining time, start-up costs,

material expenses, and feature-related costs.

To minimize costs, it's essential to grasp the impact of these factors.

1. To reduce machining time, opt for design features that can be machined swiftly.

For instance, choose appropriate radii for internal corners, limit cavity depth, increase wall

thicknesses, shorten thread length, and incorporate holes with standard sizes.

2. Cut material costs by considering the necessary blank size and assessing the cost and

machinability of the base material. Softer alloys tend to be faster to machine.

3. Mitigate start-up costs by minimizing the number of part rotations or repositioning steps

needed to complete the part.

This can be achieved by segregating geometries into multiple parts that can be assembled later.

4. To lower feature costs, employ tolerances only when absolutely necessary, eliminate any text or

lettering, and avoid multiple surface finishes whenever possible.