Precision Stainless Steel CNC Machined Parts for Automotive OEM Applications

Precision Stainless Steel CNC Machined Parts for Automotive OEM Applications

Automotive manufacturers and Tier-1/Tier-2 suppliers require precision components that fit correctly, assemble consistently and perform reliably under defined operating conditions.

For selected automotive and electric vehicle applications, stainless steel CNC machined parts provide a combination of corrosion resistance, dimensional control and design flexibility.

Typical custom components may include precision bushings, threaded fittings, spacers, mounting hardware, locating components, shafts and other drawing-based mechanical parts.

However, selecting stainless steel does not automatically guarantee high strength, fatigue resistance, dimensional stability or suitability for elevated temperatures.

Performance depends on the selected alloy, material condition, part geometry, manufacturing process and actual service environment.

Juxin Fasteners supplies custom fastening-related components and precision stainless steel CNC machined parts for industrial and OEM applications, subject to drawing review and technical confirmation.

This guide explains how automotive engineers, manufacturing teams and procurement professionals can evaluate material selection, 

CNC machining processes, tolerances, assembly requirements, inspection and long-term sourcing.

What Are Precision Stainless Steel CNC Machined Parts?

Precision stainless steel CNC machined parts are components produced through computer-controlled material removal processes to achieve specified dimensions, geometries and surface conditions.

Depending on the component design, manufacturing may involve:

• CNC turning

• CNC milling

• Drilling and boring

• Internal and external threading

• Reaming

• Precision grinding

• Deburring

• Surface finishing

These processes are suitable for many custom parts requiring controlled features or interfaces.

Typical Automotive-Related Components

• Precision spacers

• Threaded bushings

• Custom mounting studs

• Stainless steel fittings

• Locating pins

• Machined sleeves

• Sensor mounting components

• Precision connector bodies

• Custom fastener-related components

• Production fixtures and tooling components

The suitability of a particular process depends on geometry, tolerance, material, quantity and inspection requirements.

Why Use Stainless Steel for Automotive CNC Components?

Stainless steel may be selected where the application requires a combination of mechanical performance and corrosion resistance.

Corrosion Resistance

Suitable stainless steel alloys can resist corrosion in many automotive and industrial environments.

However, resistance varies significantly by alloy and exposure conditions.

Dimensional Control

CNC machining allows defined geometric features to be produced and inspected against an approved drawing.

Achievable tolerances depend on part design, equipment, tooling, setup and process control.

Mechanical Performance

Some stainless steel alloys provide useful strength and toughness for selected mechanical applications.

Others are chosen primarily for corrosion resistance or machinability.

Manufacturing Flexibility

CNC machining can support complex features, prototypes and production components where the process is economically appropriate.

Important Engineering Principle

Material selection and machining precision must be evaluated separately.

A highly accurate component manufactured from an unsuitable alloy may still fail in service.

Stainless Steel Material Selection for Automotive CNC Machining

Selecting the correct alloy is one of the most important decisions in precision component development.

304 Stainless Steel CNC Machined Parts

304 is a widely used austenitic stainless steel.

Potential Advantages

• Good general corrosion resistance

• Broad industrial familiarity

• Useful formability

• Suitability for many mechanical and equipment applications

Potential Applications

• Equipment mounting components

• Precision spacers

• Electronic housing hardware

• Selected automotive accessory components

• Custom threaded parts

Machining Considerations

304 can work-harden during machining and may generate difficult chips.

Tooling, cutting conditions and chip control require attention.

Important Limitation

304 is not automatically suitable for severe chloride exposure, high-temperature loading or safety-critical automotive structures.

316 Stainless Steel CNC Machined Parts

316 contains molybdenum, which can improve resistance to certain forms of localized corrosion.

Potential Applications

• Corrosion-sensitive fittings

• Outdoor equipment

• Selected fluid-handling hardware

• Equipment exposed to certain cleaning chemicals

Engineering Considerations

• Actual chemical exposure

• Chloride concentration

• Operating temperature

• Crevice conditions

• Mechanical requirements

• Machining cost

Important Limitation

316 is not immune to corrosion and should not be selected solely because it is commonly described as marine grade.

303 Stainless Steel CNC Machined Parts

303 is a free-machining austenitic stainless steel designed to improve machinability relative to certain other austenitic grades.

Potential Advantages

• Improved chip breaking

• Easier machining in suitable operations

• Potential production efficiency advantages

Engineering Trade-Offs

303 generally provides less favorable corrosion resistance and has application limitations associated with its free-machining chemistry.

Important Limitation

303 should not automatically replace 304 or 316 where corrosion, welding or other application requirements are critical.

17-4 PH Stainless Steel CNC Machined Parts

17-4 PH is a precipitation-hardening stainless steel used where a combination of strength and corrosion resistance is required.

Potential Applications

• Selected high-strength mechanical components

• Precision shafts

• Custom structural hardware

• Specialized industrial equipment parts

Engineering Considerations

• Required heat-treatment condition

• Strength and hardness

• Toughness

• Corrosion exposure

• Dimensional change during processing

Important Limitation

17-4 PH is not a universal replacement for austenitic stainless steels.

Its suitability depends on the specified condition and operating environment.

Material Selection Comparison

Engineering Recommendation

Select the material against the approved drawing and functional requirements rather than using a generic stainless steel designation.

CNC Turning for Stainless Steel Automotive Components

CNC turning is commonly used for rotational components.

Typical Parts

• Bushings

• Sleeves

• Threaded fittings

• Precision spacers

• Custom studs

• Cylindrical connectors

• Small shafts

Engineering Advantages

Turning can efficiently produce concentric cylindrical features and controlled diameters.

Design Considerations

• Diameter-to-length ratio

• Tool accessibility

• Thread relief

• Shoulder geometry

• Concentricity requirements

• Surface finish

• Burr control

Production Considerations

Bar stock selection, workholding, tool wear and chip management affect cycle time and dimensional repeatability.

Information Gain: Concentricity Depends on Datum Strategy

A drawing may specify multiple coaxial features, but the manufacturing and inspection strategy must establish which feature controls the functional alignment.

Where practical, related critical diameters should be machined with a setup strategy that minimizes unnecessary repositioning.

Engineering Recommendation

Define functional datums and geometric tolerances rather than relying only on independent diameter tolerances.

CNC Milling for Custom Automotive Stainless Steel Parts

CNC milling is suitable for many nonrotational or multi-feature components.

Typical Parts

• Mounting blocks

• Custom brackets

• Precision locating components

• Equipment interfaces

• Sensor mounting hardware

• Fixture components

Engineering Considerations

• Pocket geometry

• Wall thickness

• Corner radii

• Tool accessibility

• Hole positioning

• Clamping surfaces

• Surface finish

Production Considerations

Excessively deep pockets, thin walls and unnecessary tight tolerances can increase machining time and inspection cost.

Information Gain: Design for Machining and Assembly Together

A part may be easy to machine but difficult to assemble if mounting holes, locating features and mating surfaces are not dimensioned from a consistent datum system.

Engineering Recommendation

Review the part in its assembled condition before finalizing the machining drawing.

Precision Thread Machining for Automotive OEM Components

Threaded features are common in custom machined components.

Typical Applications

• Threaded bushings

• Custom fittings

• Mounting studs

• Precision connectors

• Fastener-related components

Thread Manufacturing Processes

Depending on the geometry and material, threads may be produced by:

• Tapping

• Single-point thread cutting

• Thread milling

• External threading operations

Engineering Considerations

• Thread designation

• Pitch

• Tolerance class

• Engagement length

• Mating material

• Surface condition

• Installation requirements

Metric and Inch Threads

ISO metric, UNC, UNF, BSW and BSF threads are distinct systems.

They are not directly interchangeable.

Approximate inch conversions should be treated as dimensional references only.

Engineering Recommendation

Specify the complete thread designation and applicable tolerance requirements.

Precision Drilling, Boring and Reaming

Hole quality is important for many automotive components.

Potential Applications

• Locating holes

• Bearing interfaces

• Fastener clearance holes

• Precision sleeves

• Equipment mounting features

Engineering Considerations

• Hole diameter

• Positional tolerance

• Surface finish

• Hole depth

• Entry and exit burrs

• Alignment with mating features

Important Limitation

A nominal hole diameter alone may not adequately define a functional precision interface.

Engineering Recommendation

Specify the required dimensional and geometric characteristics according to the function of the hole.

Precision Grinding and Finishing

Grinding may be considered where the required surface finish or dimensional characteristics justify an additional finishing operation.

Potential Applications

• Precision shafts

• Locating surfaces

• Cylindrical interfaces

• Specialized mechanical components

Engineering Considerations

• Surface integrity

• Dimensional control

• Material condition

• Finishing allowance

• Inspection method

Important Limitation

Grinding should not be specified automatically for every precision component.

It adds processing steps and cost.

Automotive CNC Machining Tolerances and GD&T

Precision machining should be defined by functional requirements, not by a general claim of high accuracy.

Dimensional Tolerances

Dimensional tolerances define acceptable variation in features such as diameter, length and width.

Geometric Dimensioning and Tolerancing

GD&T helps define functional relationships between features.

Common controls may include:

• Position

• Flatness

• Perpendicularity

• Parallelism

• Profile

• Runout

Relevant Standard

ASME Y14.5 provides a framework for geometric dimensioning and tolerancing.

ISO GPS standards may also apply depending on the drawing system.

Important Engineering Principle

The drawing must use a consistent interpretation system.

Information Gain: Tight Tolerances Should Be Applied to Functional Features

Applying unnecessarily tight tolerances to every feature can increase machining time, scrap risk and inspection cost without improving assembly performance.

Engineering Recommendation

Identify critical-to-function characteristics and allow practical tolerances for noncritical features.

Datum Selection and Tolerance Stack-Up

A CNC machined part may meet individual dimensional tolerances yet still cause assembly problems.

This can happen when the functional relationship between features has not been adequately controlled.

Example: Mounting Component

A machined bracket may have acceptable hole diameters but incorrect hole positions relative to the locating surface.

Potential Consequences

• Difficult assembly

• Misalignment

• Additional rework

• Excessive installation force

• Reduced repeatability

Engineering Recommendation

Use functional datums and perform tolerance stack-up analysis where required.

Surface Roughness and Functional Performance

Surface roughness can affect:

• Sealing interfaces

• Sliding contact

• Bearing surfaces

• Appearance

• Assembly friction

Important Limitation

A smoother surface is not automatically better for every application.

The required surface texture depends on function.

Engineering Recommendation

Specify roughness only where it contributes to performance.

Burr Control and Edge Conditions

Burrs can create assembly and quality problems.

Potential Risks

• Interference during installation

• Damage to seals

• Thread contamination

• Handling hazards

• Electrical equipment contamination

Engineering Recommendation

Identify critical edges and define appropriate burr and edge requirements.

Important Production Principle

Deburring is a manufacturing requirement that should be considered during design and quotation, not only during final inspection.

Automotive Engine-Adjacent CNC Machined Components

Precision machined stainless steel parts may be used in selected engine-adjacent or auxiliary assemblies.

Potential Applications

• Custom mounting hardware

• Precision spacers

• Auxiliary fittings

• Equipment brackets

• Sensor mounting components

Engineering Considerations

• Operating temperature

• Vibration

• Mechanical loading

• Corrosion exposure

• Mating materials

• Service accessibility

Important Limitation

General-purpose stainless steel CNC parts should not be assumed suitable for critical engine or powertrain applications without the required validation.

Automotive Body and Mounting Components

Custom CNC machined parts may support selected body, trim and mounting applications.

Potential Components

• Mounting blocks

• Precision locating pins

• Custom threaded hardware

• Accessory brackets

• Connector interfaces

Engineering Considerations

• Installation sequence

• Joint loading

• Surface protection

• Mating materials

• Dimensional stack-up

Production Manager's Perspective

A component that locates consistently can reduce adjustment and rework during assembly.

Automotive Electronics and Sensor Mounting

Modern vehicles contain numerous electronic modules and sensor assemblies.

Precision machined components may be used in selected mounting and enclosure interfaces.

Potential Applications

• Sensor mounting hardware

• Electronic enclosure components

• Connector bodies

• Precision spacers

• Equipment locating parts

Engineering Considerations

• Hole position

• Alignment

• Corrosion resistance

• Electrical compatibility

• Assembly accessibility

• Environmental sealing

Important Limitation

A machined metal component does not automatically provide electrical insulation, electromagnetic compatibility or enclosure sealing.

These functions require separate design and validation.

Automotive Welding Fixtures and Assembly Tooling

CNC machining is also used to produce precision tooling for automotive manufacturing.

Potential Components

• Locating pins

• Positioning blocks

• Fixture spacers

• Custom mounting hardware

• Tooling interfaces

Engineering Advantages

Accurate locating features can support repeatable assembly and inspection processes.

Production Considerations

• Wear

• Replacement intervals

• Setup repeatability

• Accessibility

• Maintenance

Information Gain: Fixture Components Should Be Designed for Replacement

For frequently serviced production tooling, replaceable locating elements can reduce downtime compared with designs requiring complete fixture replacement.

Engineering Recommendation

Consider maintenance and spare-part interchangeability during tooling design.

Stainless Steel CNC Parts for Automotive Exhaust Systems

Exhaust-related applications may require materials that tolerate elevated temperatures and corrosive environments.

Potential Components

• Mounting hardware

• Custom connectors

• Precision fittings

• Selected support components

Engineering Considerations

• Maximum service temperature

• Thermal cycling

• Oxidation resistance

• Mechanical loading

• Corrosion exposure

• Material condition

Important Limitation

Not all stainless steel grades provide the same elevated-temperature performance.

304 or 316 should not be selected for a high-temperature exhaust component without evaluating the actual service requirements.

Automotive Fuel and Fluid Systems

Custom stainless steel machined parts may be considered for selected fluid-handling applications.

Potential Components

• Threaded fittings

• Connector bodies

• Precision adapters

• Custom mounting components

Engineering Considerations

• Fluid compatibility

• Operating pressure

• Sealing geometry

• Surface finish

• Cleanliness

• Inspection requirements

Critical Limitation

Fuel-system and pressure-containing components require application-specific design, material selection and validation.

A machined stainless steel fitting is not automatically suitable for fuel or pressure service.

Automotive Structural Components

Precision machining may be used for selected structural interfaces or support hardware.

Engineering Considerations

• Load paths

• Fatigue

• Mechanical properties

• Joint design

• Corrosion

• Weight

• Inspection

Critical Safety Limitation

Safety-critical automotive structural parts require the applicable customer approval and validation.

General CNC machining capability alone does not establish structural suitability.

Decorative and Exterior Automotive Components

Stainless steel CNC machined components may also be used for selected appearance-related applications.

Potential Applications

• Custom trim hardware

• Exterior accessory fittings

• Decorative mounting components

• Precision attachment parts

Engineering Considerations

• Surface finish

• Corrosion resistance

• Visible defects

• Edge quality

• Mating materials

Procurement Recommendation

Specify cosmetic acceptance criteria separately from dimensional requirements.

Precision CNC Machined Parts for Electric Vehicles

Electric vehicles introduce additional requirements related to electrical systems, battery equipment and thermal management.

Potential Applications

• Auxiliary battery enclosure hardware

• Charging equipment components

• Precision mounting parts

• Selected thermal management fittings

• Equipment locating components

Engineering Considerations

• Electrical isolation

• Corrosion resistance

• Mechanical loading

• Thermal expansion

• Sealing requirements

• Installation access

Important Limitation

High-voltage electrical connections, battery structural components and pressure-containing cooling interfaces require separate engineering approval and validation.

EV Thermal Management Components

Precision machined parts may be used in selected cooling and fluid-routing assemblies.

Potential Components

• Custom fittings

• Connector bodies

• Precision adapters

• Mounting hardware

Engineering Considerations

• Coolant compatibility

• Pressure

• Leakage

• Thermal cycling

• Galvanic interaction

• Cleanliness

• Surface finish

Information Gain: Material Compatibility Extends Beyond the Machined Part

A stainless steel fitting may be corrosion-resistant by itself but still create compatibility concerns when connected to aluminum housings, copper alloys or other materials in a coolant system.

Engineering Recommendation

Evaluate the complete fluid circuit and mating materials.

CNC Machining Challenges of Stainless Steel

Stainless steel machining requires process planning because different alloys respond differently to cutting.

Work Hardening

Some stainless steels, particularly austenitic grades, can work-harden during machining.

Potential Consequences

• Increased cutting forces

• Tool wear

• Surface quality problems

• Dimensional variation

Process Considerations

• Suitable cutting parameters

• Appropriate tooling

• Controlled tool engagement

• Effective chip evacuation

Heat Generation

Heat generated during machining can affect tool life and dimensional stability.

Process Considerations

• Cutting speed

• Tool geometry

• Coolant strategy

• Workholding

• Inspection timing

Chip Control

Poor chip control can interrupt machining and damage surfaces.

Process Considerations

• Tool selection

• Feed conditions

• Material grade

• Chip evacuation

Tool Wear

Tool wear may affect dimensions, burr formation and surface finish.

Production Manager's Perspective

Tool-life monitoring and process consistency can be more important to recurring production cost than the fastest possible individual cutting cycle.

Dimensional Stability

Temperature, residual stress and machining sequence may influence finished dimensions.

Engineering Recommendation

For precision components, establish a suitable machining and inspection process rather than relying only on nominal CNC equipment accuracy.

Design for Manufacturability: Reducing CNC Part Cost

Cost reduction should begin during the design stage.

Simplify Unnecessary Features

Avoid complex geometry that does not contribute to function.

Use Functional Tolerances

Apply tight tolerances only where required.

Review Tool Accessibility

Ensure cutting tools can reach critical features.

Avoid Unnecessary Deep Cavities

Deep cavities can increase machining time and tooling complexity.

Optimize Material Selection

Do not specify a more expensive alloy unless its properties are required.

Review Surface Finish Requirements

Unnecessary finishing operations add cost.

Consider Production Volume

The most economical manufacturing route may change with annual demand.

Information Gain: A Small Drawing Change Can Affect Total Production Cost

A minor change in hole position, internal radius, thread relief or surface finish may reduce setup complexity or eliminate a secondary operation.

Engineering Recommendation

Review the drawing for manufacturability before tooling and production planning.

Prototype Machining vs. Recurring OEM Production

Prototype and production machining have different priorities.

Prototype Stage

The main objectives may include:

• Design verification

• Assembly fit

• Functional testing

• Material evaluation

• Drawing revision

Recurring Production Stage

The priorities expand to:

• Process repeatability

• Stable tooling

• Inspection efficiency

• Batch consistency

• Delivery reliability

• Cost control

Important Production Principle

A successful prototype does not automatically establish a capable recurring production process.

Engineering Recommendation

Confirm critical characteristics and production controls before scaling.

CNC Machined Parts for Industrial Automation

Custom stainless steel machined components are also used in industrial equipment.

Potential Applications

• Automation fixtures

• Precision locating parts

• Threaded components

• Equipment spacers

• Mounting interfaces

Engineering Considerations

• Repeated loading

• Wear

• Corrosion

• Dimensional consistency

• Maintenance access

Medical and Laboratory Equipment

Precision stainless steel components may be considered for selected laboratory and medical equipment assemblies.

Potential Applications

• Equipment housings

• Instrument mounting components

• Precision hardware

• Laboratory fixtures

Engineering Considerations

• Material compatibility

• Surface finish

• Cleaning

• Corrosion resistance

• Traceability

• Applicable equipment requirements

Important Limitation

General stainless steel machining does not automatically establish medical-device compliance or suitability for patient-contact applications.

Electrical and Communication Equipment

Custom machined stainless steel parts may be used in selected electrical and communication equipment.

Potential Applications

• Connector hardware

• Equipment mounting components

• Enclosure fittings

• Precision mechanical interfaces

Engineering Considerations

• Electrical conductivity

• Grounding requirements

• Corrosion

• Installation access

• Surface condition

Quality Control for Precision Stainless Steel CNC Machined Parts

Inspection requirements should be defined by the approved drawing and intended application.

Material Verification

Confirm the specified alloy and material condition.

Dimensional Inspection

Verify critical dimensions and tolerances.

Thread Inspection

Confirm thread geometry and applicable tolerance requirements.

Geometric Inspection

Inspect functional relationships between features where specified.

Surface Inspection

Review surface finish, burrs and other relevant conditions.

Functional Inspection

Where required, validate fit or performance in the intended assembly.

Documentation

Define material certificates, inspection reports and traceability requirements as appropriate.

Important Limitation

Not every CNC machined component requires the same inspection or test program.

Automotive Supplier Qualification

Automotive procurement teams may require additional supplier qualification activities.

Depending on the customer and project, these may include:

• Drawing and specification review

• Material traceability

• Process capability evaluation

• Inspection planning

• Sample approval

• Change control

• Production documentation

Important Distinction

Automotive-specific requirements such as PPAP or customer quality-system approvals apply when specified by the customer.

They should not be assumed or claimed without confirmation.

Information Gain: Define Critical Characteristics Before Quotation

If a supplier does not know which features control assembly performance, the quotation may underestimate inspection, tooling or process requirements.

Procurement Recommendation

Identify critical dimensions and functional characteristics in the RFQ package.

Custom Stainless Steel CNC Machined Parts from Juxin Fasteners

Juxin Fasteners welcomes inquiries for drawing-based precision components and fastening-related CNC machined parts.

Potential product categories include:

• Custom stainless steel turned parts

• Precision bushings

• Threaded fittings

• Stainless steel spacers

• Custom mounting hardware

• Precision connector components

• Custom studs and fastening-related parts

• OEM machined mechanical components

Specific alloy grades, tolerances, finishing processes, samples, MOQ, inspection documentation and delivery schedules are subject to technical and commercial confirmation.

Preparing an OEM CNC Machining RFQ

A complete RFQ allows engineering and procurement teams to evaluate the component more efficiently.

Drawing and Design Information

• 2D drawing

• 3D model, if available

• Part number and revision

• Critical dimensions

• GD&T requirements

• Thread specifications

• Surface finish requirements

Material Information

• Stainless steel grade

• Applicable material specification

• Material condition

• Heat-treatment requirements, if any

Application Information

• Intended assembly

• Mating components

• Operating environment

• Mechanical loading

• Corrosion requirements

• Temperature requirements

Quality Requirements

• Inspection criteria

• Critical characteristics

• Material documentation

• Traceability requirements

• Sample approval requirements

Commercial Requirements

• Prototype quantity

• MOQ expectations

• Annual demand

• Production batch size

• Packaging

• Target delivery schedule

Information Gain: Separate Functional Requirements From Preferred Manufacturing Methods

When appropriate, allow the supplier to review alternative machining sequences or manufacturing approaches while keeping the approved functional requirements unchanged.

This can support more efficient production without compromising design intent.

Frequently Asked Questions

What stainless steel grades are commonly used for CNC machining?

304, 316, 303 and 17-4 PH are examples of grades considered for different machining applications. 

Selection depends on corrosion, strength, machinability and other requirements.

Is 304 stainless steel suitable for precision CNC machining?

Yes, for many applications. However, its work-hardening behavior and chip-control requirements must be considered.

Is 316 stainless steel always better than 304?

No. 316 may provide improved corrosion resistance in selected environments, but cost, machinability and actual service requirements must also be considered.

What is the advantage of 303 stainless steel for machining?

303 is designed for improved machinability, but its corrosion and application limitations must be reviewed.

Can CNC machined stainless steel parts be used in automotive safety-critical systems?

Only when the complete material, design, manufacturing and validation requirements are satisfied and approved.

How should CNC machining tolerances be specified?

Tolerances should be based on functional requirements, mating interfaces and the applicable drawing standard.

What causes dimensional variation during stainless steel machining?

Potential factors include temperature, tool wear, workholding, residual stress, machining sequence and inspection conditions.

Can Juxin Fasteners review custom CNC machining drawings?

Juxin Fasteners welcomes drawing-based inquiries for custom stainless steel machined components, subject to technical review.

What should an automotive OEM buyer include in an RFQ?

Include drawings, material specifications, critical tolerances, finishing requirements, inspection criteria, quantities and delivery requirements.

Juxin Fasteners: Precision Stainless Steel CNC Machined Parts for OEM Applications

Juxin Fasteners supports industrial and automotive-related sourcing requirements for custom fastening components and precision stainless steel machined parts.

Our focus is on reviewing customer drawings, understanding functional requirements and evaluating suitable manufacturing and supply solutions.

For automotive OEM, EV equipment, industrial automation and other precision mechanical applications, 

the correct component should be selected based on material suitability, geometry, tolerances, assembly conditions and quality requirements.

Request a Custom Stainless Steel CNC Machining RFQ

Are you sourcing custom stainless steel CNC machined parts for automotive or industrial equipment?

Do you need precision threaded components, bushings, spacers, fittings or custom fastening-related parts?

Are you developing a new component or evaluating an alternative supplier for recurring production?

Juxin Fasteners welcomes inquiries from design engineers, mechanical engineers, structural engineers, manufacturing engineers, production managers,

 procurement specialists, purchasing managers, supplier development teams and supply chain managers.

For technical review and quotation, please provide:

2D drawing + 3D model if available + part number and revision + stainless steel grade + material condition + critical dimensions + GD&T 

+ thread specifications + surface finish + heat treatment if applicable + operating environment + functional requirements + inspection criteria

 + prototype quantity + annual demand + production batch size + packaging + target delivery schedule.

Company: Juxin Fasteners

Website: https://www.juxinfasteners.com/

Email: info@juxinfasteners.com

Send your precision CNC machining drawings and OEM RFQ to Juxin Fasteners for technical review and quotation.