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Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts
  • Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts
  • Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts
  • Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts
  • Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts
  • Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts

Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts

Place of Origin Dongguan, China
Brand Name Yexin
Certification ISO9001:2015
Model Number SS12
Product Details
Application:
Industrial, Aerospace, Automotive, Medical, Consumer Electronics, Robotics & Automation, Etc.
Material:
Stainless Steel
Processing:
CNC Turning, CNC Milling, CNC Drilling, Etc.
Service:
OEM, ODM, Customized
Surface Finish:
Anodizing, Polishing, Painting, Etc.
Tolerance:
±0.01mm, ±0.005mm, Etc.
Delivery:
By Air, Sea, Express, Etc.
Drawing Format:
CAD, PDF, STEP, STP, IGES, IGS, SLDPRT, 3DM, SAT, Etc.
Keyword:
CNC Stainless Steel Parts
Payment & Shipping Terms
Minimum Order Quantity
1 pcs
Price
Negotiable
Packaging Details
Standard Export Carton, Wooden Case, etc.
Delivery Time
3-15 work days
Payment Terms
L/C, D/A, D/P, T/T, Western Union
Supply Ability
120000 pcs/month
Product Description

Custom Stainless Steel Parts CNC Mechanical Parts CNC Lathe Machining Turned Parts

 

 

CNC machining operates through subtractive processes, signifying that the feedstock is shaped

into its final form by systematically removing material. This involves drilling holes, boring lots

and pathways, and molding metal stock into new material with diverse tapers, diameters,

and shapes.

 

In subtractive manufacturing, the desired shapes are achieved by material removal, setting it

apart from additive manufacturing methods where materials are added and layered to attain

a specified form.

 

It also differs from injection molding, which involves injecting material into a mold in a different

state of matter to achieve a specified shape. CNC machining's adaptability extends to various

materials, including metals, plastics, wood, glass, foam, and composite materials, making it a

favored choice for efficient and precise fabrication across industries.

 

Product Details

 

Stainless Steel Finishing and Post-Processing

 

Name Machining Marks
Brushed + electropolishing Removed on Primary surfaces
Electroless nickel plating Reduced but visible
As machined Visible, light surface scratches
Smooth machining Visible, light surface scratches
Fine machining Slightly visible
Polishing Removed on primary surfaces
Bead blasting Removed for non-cosmetic, removed on primary surfaces for cosmetic
Brushing Reduced for non-cosmetic, removed on primary surfaces for cosmetic
Powder coating Removed
Black oxide Visible

 

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Stainless Steel Machining Services

 

Our state-of-the-art machine shops are equipped to manufacture tailor-made stainless steel

components utilizing CNC turning machines and 3- and 5-axis CNC milling machines.

 

Our facilities boast a diverse range of 11 stainless steel types, including Stainless Steel 304,

Stainless Steel 316, Stainless Steel 303, Stainless Steel 17-4PH, Stainless Steel 416,

Stainless Steel 2205 Duplex, Stainless Steel 420, Stainless Steel 440C, Stainless Steel 430,

Stainless Steel 301, and Stainless Steel 15-5, enabling us to meet a wide array of project

requirements.

 

Common Stainless Steel Materials
No. Properties
Stainless steel 304/304L Stainless steel 304L (CNC) has excellent mechanical properties and good machinability. Resistant to most environments and corrosive media.
Stainless steel 316/316L Stainless steel 316L (CNC) has similar mechanical properties to 304, with higher corrosion and chemical resistance. Ideal for marine applications.
Stainless steel 303 Stainless steel 303 (CNC) has excellent toughness, but lower corrosion resistance than 304. Ideal for high volumes, due to its excellent machinability.
Stainless Steel 17-4 PH Stainless steel 17-4 (CNC) - SAE grade 630 - is a precipitation hardening alloy with good corrosion resistance. Can be hardened up to 44 HRC.
Stainless steel 416 Stainless steel 416 is magnetic and has a high machinability.
Stainless steel 2205 Duplex Stainless steel 2205 Duplex (CNC) is the alloy with the highest strength and hardness. Suitable for applications in severe environments up to 300°C.
Stainless steel 420 Stainless steel 420 provides high strength and corrosion resistance. It is the hardest of all stainless steels when hardened.
Stainless steel 440C Stainless steel 440C has improved toughness and corrosion resistance due to Carbon and Chromium content.
Stainless steel 430 Stainless steel 430 is magnetic and corrosion resistant.
Stainless steel 301 Stainless steel 301 is corrosion resistant similar to Stainless steel 304.
Stainless steel 15-5 Stainless steel 15-5 has a higher toughness than 17-4, better corrosion resistance and transverse properties compared to other similar martensitic grades.

 

CNC Machining Applications

 

CNC machining finds diverse applications across various industries. In the woodworking sector,

CNC machining is extensively used for:


1. Woodworking Industries:
CNC machining plays a crucial role in the production of wooden furniture, offering time and cost

savings. It enables the creation of furniture with intricate geometries that would be labor-intensive

and costly to achieve manually.


2. Lettering and Engraving Systems:
CNC machining is employed for applications that involve engraving tools to mark patterns or text

onto surfaces. This is utilized for artistic purposes or for serializing parts.


3. Electrical Industry:
The demand for CNC-machined parts in the electronics industry is vast. CNC machining is used

for tasks such as machining component mounting holes in printed circuit boards and creating

aluminum or copper heat sinks for heat-generating electrical components.


4. Pharmaceutical Industry:
CNC machines are utilized in the pharmaceutical industry to manufacture precise equipment for

the production of pharmaceutical products. This includes applications like machining extremely

precise metering pumps, ingredient-dispensing nozzles, and packaging.


5. Food and Beverage Industry:
CNC machining plays a role in the fast-moving consumer goods industry, where custom

material-handling machinery incorporates CNC machined parts. Additionally, injection molds

for food packaging made from plastics are CNC machined.

 

The versatility of CNC machining extends across industries, contributing to the efficiency and

precision of various manufacturing processes.

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Company Profile

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Factors Affecting Machining Costs


The cost of CNC machining projects is influenced by various factors that have a significant impact

on the overall cost calculation. Manufacturers looking to optimize their processes and manage

expenses effectively should have a thorough understanding of these key elements that determine

machining costs.

 

Let's delve into the factors that play a crucial role in determining the cost of CNC machining:

 

1. Material Selection:
The choice of raw material directly affects machining costs. Different materials come with varying

costs, availability, and machining characteristics. High-performance alloys, for instance, may be

more expensive than common metals. Material availability also affects pricing.

 

When calculating machining expenses, it's essential to consider the type of material required for

CNC machined parts and its associated cost.


2. Complexity of Design:
The complexity of the machined part or component is a significant cost determinant. Parts with

intricate features, tight tolerances, and complex geometries often necessitate advanced machining

techniques, specialized tooling, and longer machining time.

 

These factors increase overall costs due to the additional precision and expertise required to

produce such complex components.


3. Machining Time:
Machining time is a critical factor in CNC cost calculation. The longer it takes to machine a part,

the higher the cost. Machining time includes cycle time (the time spent cutting the part), setup

time (preparation and tool changes), and overall production efficiency.

 

Optimizing machining processes to reduce cycle time and enhance setup efficiency can minimize

costs and boost productivity.


4. Machine Tooling:
The choice and management of machine tooling have a significant impact on machining costs.

Considerations should include tooling costs, encompassing the purchase, maintenance,

and replacement of cutting tools. The lifespan of cutting tools and the time required for tool

changeovers affect production efficiency and, consequently, cost. Proper selection, maintenance,

and optimization of machine tooling can help control expenses in CNC machining.


5. Volume and Batch Size:
Production volume and batch size directly influence machining costs. Economies of scale come

into play with larger volumes. The cost per part typically decreases as production quantities

increase. However, it's crucial to strike a balance between volume and setup time.

 

Small batch sizes may have higher costs per part due to increased setup time, while larger

volumes benefit from reduced setup time and lower costs per part.


6. Labor Costs:
Labor costs, encompassing the wages of CNC machining engineers and operators, make a

significant contribution to CNC machining expenses. Skilled operators with expertise in CNC

programming, setup, and operation are essential for efficient and accurate machining.

 

Labor-intensive operations or intricate part requirements may involve additional labor costs.

Finding the right balance between utilizing skilled labor and cost management is crucial in

controlling machining expenses.


7. Overhead Costs:
Overhead costs associated with CNC machining operations can impact the overall cost calculation.

These costs include facility expenses, utilities, administrative costs, quality control, and inspection.

Managing and optimizing these overhead expenses are vital for cost control and maintaining a

competitive edge in CNC machining.


8. Scrap and Rework:
Scrap and rework costs are important considerations in machining expenses. Material wastage

due to errors or deviations from specifications can significantly increase costs. Minimizing scrap

through effective quality control measures, precision machining techniques, and robust inspection

processes helps reduce material waste and the need for rework, ultimately lowering overall

machining costs.

 

By comprehending and analyzing these factors that affect machining costs, manufacturers can

identify areas for improvement, implement cost-saving strategies, and optimize their CNC

machining processes to achieve greater efficiency and profitability.

 

 

Contact Us at Any Time

86--13712759809
Hengjiao Industry Zone, Hengjiao Village, Shijie Town, Dongguan, Guangdong, China
Send your inquiry directly to us