High-Strength Steel Flange Nuts – Class 10 DIN 6923, Dacromet Coated

High-Strength Steel Flange Nuts – DIN 6923 Class 10 with Dacromet Zinc-Flake Coating

Plain Hexagon Flange Nuts for High-Strength OEM Mechanical Assemblies, Corrosion Protection and Industrial Equipment Manufacturing

JUXIN FASTENERS supplies high-strength carbon steel flange nuts for industrial OEM manufacturers requiring reliable threaded connections, controlled mechanical properties and corrosion-resistant surface treatments.

The featured product is a Class 10-focused hexagon flange nut with a plain, non-serrated integral flange and a Dacromet-type zinc-flake coating.

The integrated flange provides a larger bearing surface than a conventional hex nut of comparable size, helping distribute compressive contact pressure over a wider area.

This design can simplify selected assemblies by eliminating the need for a separate flat washer, provided that the complete joint design permits the substitution.

The featured zinc-flake coating is intended for applications requiring specified corrosion protection and controlled coating performance.

In the United States, this product family is commonly described as High-Strength Steel Flange Nuts.

Related engineering and procurement terminology includes High-Strength Hex Flange Nuts, Class 10 Flange Nuts, Plain Flange Hex Nuts, DIN 6923 Nuts, Dacromet-Coated Flange Nuts and Zinc-Flake-Coated Hexagon Flange Nuts.

JUXIN FASTENERS supports drawing-based sourcing for OEMs, Tier-1 and Tier-2 suppliers, machinery manufacturers, mechanical engineers, manufacturing engineers, production managers and international procurement teams.

Product Specifications

Product Name: High-Strength Steel Flange Nuts

American Commercial Name: High-Strength Steel Flange Nuts

Engineering Description: Class 10 Plain Hexagon Flange Nuts

Alternative Names:

• High-Strength Hex Flange Nuts

• High-Tensile Steel Flange Nuts

• DIN 6923 Hexagon Flange Nuts

• Non-Serrated Hex Flange Nuts

• Plain Bearing Flange Nuts

• Dacromet-Coated Flange Nuts

• Zinc-Flake-Coated Flange Nuts

• Collar Nuts

Material: Carbon Steel

Featured Mechanical Property Class: Class 10, Subject to Verification

Original Product Family Classes: 5, 6, 8 and 10

Featured Surface Treatment: Dacromet-Type Zinc-Flake Coating

Primary Product Standard: DIN 6923

Relevant Mechanical Property Standard: ISO 898-2

Relevant Coating Standard: ISO 10683

Original Metric Size Range:

• M4

• M5

• M6

• M8

• M10

• M12

• M14

• M16

• M20

Additional Thread Systems: Inch-Series Options Subject to Separate Specification Review

Flange Design: Plain, Non-Serrated Integral Flange

Built-In Prevailing-Torque Locking Mechanism: None in the Featured Standard Configuration

Manufacturing Basis: Approved Customer Engineering Drawings and Technical Specifications

Important Specification Distinction

The original catalog lists several mechanical property classes.

The high-strength designation applies specifically to verified high-strength configurations, particularly Property Class 10 for the featured metric product.

Other property classes must be identified accurately and should not automatically be marketed as Class 10.

What Are High-Strength Steel Flange Nuts?

High-strength steel flange nuts are internally threaded hexagon nuts with an enlarged circular flange at one end.

The flange creates an integral bearing surface.

When the nut is tightened against a compatible joint surface, the flange distributes the contact force over a larger area than the bearing face of a standard hex nut.

This can be useful for mechanical assemblies requiring:

• Wider bearing contact.

• Simplified washer management.

• High-strength threaded fastening.

• Consistent component geometry.

• Corrosion-resistant coating options.

• Efficient production assembly.

The complete joint must still be designed to achieve the required clamp force and mechanical reliability.

How the Integral Flange Works

The flange is formed as part of the nut body.

Unlike a separate washer, the flange remains integrated with the nut.

Potential Engineering Benefits

• Wider bearing surface.

• Fewer loose assembly components.

• Simplified material handling.

• Potential reduction in washer installation steps.

• Convenient hexagon wrenching geometry.

• Compatibility with selected automated assembly systems.

Important Engineering Limitation

A flange nut does not automatically replace every washer.

Hardened washers, sealing washers, spring washers and specialized bearing components may serve different functions.

The flange diameter, bearing surface, joint material and applied load must be evaluated.

Plain Flange vs. Serrated Flange Nuts

Flange nuts are available with different bearing surfaces.

Plain Flange Nuts

Have a relatively smooth bearing surface without locking serrations.

They distribute bearing pressure across the flange contact area.

Serrated Flange Nuts

Have teeth or serrations on the flange face.

The serrations may engage the mating material and provide some resistance to rotation.

However, serrations can damage protective coatings or mark the mating surface.

Featured Product

The product photograph indicates a plain, non-serrated flange.

Therefore, this product should not be described as a serrated flange locknut unless a separate serrated version is confirmed.

Plain Flange Nuts vs. Prevailing-Torque Locknuts

A standard plain flange nut does not contain a built-in prevailing-torque locking feature.

It should not automatically be described as a self-locking nut.

For applications requiring resistance to loosening under vibration, engineers must evaluate the complete joint.

Potential alternatives include:

• Approved prevailing-torque nuts.

• Distorted-thread flange locknuts.

• Nylon-insert flange locknuts.

• Serrated flange nuts, where appropriate.

• Other validated locking methods.

These designs have different functional characteristics and are not automatically interchangeable.

Property Class 10 High-Strength Steel Flange Nuts

Property Class 10 is an important designation for higher-strength metric steel nuts.

The applicable mechanical property requirements are addressed by ISO 898-2.

A Class 10 nut must satisfy the specified mechanical requirements for its product configuration.

Engineering Considerations

• Nut proof load.

• Mating bolt property class.

• Thread engagement.

• Joint preload.

• Nut height.

• Flange geometry.

• Coating friction.

• Operating temperature.

• Fatigue loading.

• Installation procedure.

Class 10 Nut and Class 10.9 Bolt Compatibility

Class 10 nuts may be used in appropriately designed fastening systems involving suitable Class 10.9 bolts.

However, compatibility must be verified against the applicable standards and joint design.

A Class 10 nut designation does not guarantee the performance of the complete bolted joint.

Metric Class 10 vs. SAE Grade 8

American buyers may search for high-strength flange nuts using SAE Grade 8 or Grade G terminology.

These are not the same designation systems as ISO Property Class 10.

The standards differ in their classification methods and technical requirements.

Metric and inch-series products must be specified separately.

DIN 6923 Hexagon Flange Nut Standard

DIN 6923 is a recognized German product standard for hexagon nuts with flange.

It is an important reference for metric flange nut sourcing.

The applicable standard edition and actual product geometry must be verified.

Key Dimensional Characteristics

• Thread diameter.

• Thread pitch.

• Nut height.

• Width across flats.

• Width across corners.

• Flange diameter.

• Flange thickness.

• Bearing face geometry.

• Thread tolerance.

• Dimensional tolerances.

DIN 6923 and Related International Standards

ISO 4161 is a related international standard for hexagon nuts with flange.

However, dimensional details and applicable product requirements must be checked against the selected standard edition.

DIN 6923 and ISO 4161 should not automatically be described as fully interchangeable for every product.

Metric Thread Sizes

The original product range includes:

• M4

• M5

• M6

• M8

• M10

• M12

• M14

• M16

• M20

Common metric coarse-thread references include:

• M4 × 0.7

• M5 × 0.8

• M6 × 1.0

• M8 × 1.25

• M10 × 1.5

• M12 × 1.75

• M14 × 2.0

• M16 × 2.0

• M20 × 2.5

These are nominal engineering references.

The actual thread pitch and availability of Class 10 coated variants must be confirmed.

Metric Fine-Pitch Flange Nuts

Some industrial applications require metric fine-pitch threads.

Potential selection factors include:

• Thread engagement.

• Nut dimensions.

• Mating bolt compatibility.

• Joint preload.

• Installation torque.

• Manufacturing feasibility.

Fine-pitch requirements should be reviewed separately against the approved drawing.

Inch-Series Flange Nuts

The original product information indicates that inch-series options may also be available.

American procurement searches may include:

• SAE Grade 8 Flange Nuts

• Grade G Flange Nuts

• UNC Flange Nuts

• UNF Flange Nuts

• High-Strength Inch-Series Flange Nuts

These should be treated as separate product configurations.

Important Thread Compatibility Note

Metric and UNC/UNF threads are not directly interchangeable.

Examples:

• M6 × 1.0 is not interchangeable with 1/4"-20 UNC.

• M8 × 1.25 is not interchangeable with 5/16"-18 UNC.

• M10 × 1.5 is not interchangeable with 3/8"-16 UNC.

Do not substitute an inch-series nut for a metric nut based only on similar nominal dimensions.

Dacromet Zinc-Flake Coating

The featured product uses a Dacromet-type zinc-flake coating.

Dacromet is associated with a family of inorganic zinc-rich protective coating technologies.

In industrial procurement, the term is frequently used when discussing zinc-flake corrosion protection.

However, Dacromet is a specific commercial coating designation.

Other zinc-flake systems may use different formulations, topcoats and proprietary technologies.

Engineering Description

The broader technical term is Non-Electrolytically Applied Zinc-Flake Coating.

This is especially useful for international OEM sourcing because it describes the coating technology rather than relying solely on a trade name.

ISO 10683 Zinc-Flake Coating Systems

ISO 10683:2018 specifies requirements for non-electrolytically applied zinc-flake coating systems on steel fasteners.

The standard covers specified systems with or without:

• Hexavalent chromium.

• Topcoats.

• Integrated lubricants.

• Additional lubrication.

The coating requirements must be selected according to the customer's technical specification.

Corrosion Protection

Zinc-flake coatings are used to provide corrosion protection to steel fasteners.

Actual performance depends on:

• Coating formulation.

• Coating thickness.

• Basecoat and topcoat.

• Surface preparation.

• Application process.

• Curing.

• Environmental exposure.

• Handling damage.

A specific salt spray resistance rating must not be assumed without supporting test evidence.

Hydrogen Embrittlement Considerations

High-strength steel fasteners may be susceptible to hydrogen embrittlement under certain manufacturing and service conditions.

Non-electrolytic zinc-flake coating processes are often considered for high-strength fasteners because they can reduce the risk of introducing hydrogen compared with certain electrolytic coating processes.

However, the risk depends on the complete manufacturing process.

Relevant Engineering Controls

• Material strength.

• Heat treatment.

• Surface preparation.

• Coating process.

• Manufacturing quality controls.

• Operating stress.

• Customer-specific testing.

Zinc-flake coating does not automatically eliminate every hydrogen embrittlement risk.

RoHS Compliance and Dacromet Coatings

RoHS compliance must be evaluated against the actual coating chemistry.

Some zinc-flake coating systems are formulated without hexavalent chromium.

Other systems may contain hexavalent chromium.

Therefore, a coating should not automatically be described as RoHS-compliant simply because it is zinc-flake coated or meets ISO 10683.

Where RoHS compliance is required, specify an approved Cr(VI)-free coating system and obtain appropriate supporting documentation.

Coating Friction and Torque–Tension Performance

Coating systems influence friction between mating threads and bearing surfaces.

For high-strength flange nuts, friction affects the relationship between applied tightening torque and achieved bolt preload.

Critical Variables

• Thread friction.

• Flange bearing friction.

• Coating formulation.

• Topcoat.

• Lubrication.

• Mating bolt coating.

• Surface condition.

• Installation tooling.

A tightening torque developed for an uncoated nut should not automatically be used for a zinc-flake-coated nut.

The OEM must establish the approved torque–tension relationship.

Coating Thickness and Thread Fit

Coating thickness can affect thread fit and assembly performance.

For OEM sourcing, the coating specification should address:

• Coating thickness.

• Thread allowance.

• Thread engagement.

• Installation friction.

• Corrosion performance.

• Surface appearance.

• Inspection methods.

The finished nut must remain compatible with the specified mating bolt.

Other Surface Treatment Options

The original product family also lists:

• Iridescent Zinc Plating.

• Clear Zinc Plating.

• Blue-Passivated Zinc Plating.

• Zinc-Nickel Alloy Plating.

• Black Zinc Plating.

• Yellow Zinc Plating.

• Zinc-Flake Coating.

These finishes may be considered for customer-specific applications.

Each coating has different corrosion, friction and process characteristics.

Availability must be confirmed for the selected mechanical property class.

Flange Nuts for Oversized or Irregular Holes

The wider flange may provide additional bearing coverage around a clearance hole.

However, the flange must be large enough to maintain the required contact area.

Engineering Factors

• Hole diameter.

• Hole shape.

• Flange outside diameter.

• Bearing surface area.

• Joint material strength.

• Applied clamp force.

• Edge distance.

• Hole position tolerance.

A flange nut is not automatically suitable for every oversized or irregularly shaped hole.

Excessive hole size or insufficient bearing support may require a different joint design.

Industrial Applications and Engineering Solutions

1. Industrial Pumps

Pumps may contain mechanical mounting brackets, support frames and auxiliary equipment connections.

Engineering Challenge

Vibration, moisture and repeated operation may affect fastening performance.

Potential Solution

A Class 10 plain flange nut with an approved zinc-flake coating may be evaluated for suitable mechanical connections.

2. Industrial Valves

Valve manufacturers may require high-strength fasteners for selected external mounting and support assemblies.

Engineering Challenge

Mechanical loads and environmental exposure influence fastener selection.

Potential Solution

A properly specified high-strength flange nut may be considered for approved structural or accessory connections.

Pressure-boundary bolting requires separate engineering qualification.

3. Electric Motors

Electric motor assemblies may include mounting brackets and equipment supports.

Engineering Challenge

Operational vibration and installation consistency affect joint reliability.

Potential Solution

A high-strength flange nut may be evaluated where the joint requires its mechanical properties and bearing geometry.

4. Heavy Industrial Machinery

Heavy machinery often contains mechanically demanding bolted joints.

Engineering Challenge

High joint loads and vibration require appropriate fastener selection.

Potential Solution

A verified Class 10 flange nut may be used in suitable assemblies according to the approved joint specification.

5. Construction Equipment

Construction machinery may operate under shock loading, vibration and environmental exposure.

Engineering Challenge

Fasteners must meet the mechanical and corrosion requirements of the equipment.

Potential Solution

A Class 10 zinc-flake-coated flange nut may be evaluated for selected equipment connections.

6. Agricultural Machinery

Agricultural equipment may be exposed to moisture, dust and repeated vibration.

Engineering Challenge

Corrosion and assembly reliability influence component selection.

Potential Solution

A high-strength flange nut with a qualified protective coating may be considered for appropriate mechanical assemblies.

7. Automotive Mechanical Assemblies

Automotive OEMs and Tier-1 suppliers may use flange nuts in brackets, supports and other mechanical connections.

Engineering Challenge

High production volumes require consistent dimensions, mechanical properties and tightening behavior.

Potential Solution

A drawing-controlled Class 10 flange nut may be evaluated for the specific assembly.

Safety-critical automotive applications require dedicated validation.

8. Commercial Vehicles

Commercial vehicles may require high-strength mechanical fasteners for selected equipment mounting points.

Engineering Challenge

Dynamic loading and environmental exposure can affect joint performance.

Potential Solution

A high-strength coated flange nut may be considered where the approved design permits.

9. Industrial Automation

Automation systems contain equipment frames, mounting brackets and machinery supports.

Engineering Challenge

Assembly efficiency and repeatable tightening are important.

Potential Solution

A plain flange nut may reduce the need for a separate washer in suitable assemblies.

10. Power Distribution Equipment

Electrical infrastructure may contain mechanical mounting frames and support brackets.

Engineering Challenge

Structural loading and corrosion exposure influence fastener requirements.

Potential Solution

A coated high-strength flange nut may be evaluated for appropriate mechanical connections.

Electrical bonding and insulation requirements must be addressed separately.

11. Renewable Energy Equipment

Renewable energy systems may operate in outdoor environments.

Engineering Challenge

Long-term exposure and mechanical loading require carefully specified fasteners.

Potential Solution

A Class 10 zinc-flake-coated flange nut may be considered when the coating and joint design meet the application requirements.

12. HVAC and Thermal Management Equipment

HVAC systems contain fans, pumps and mechanical support structures.

Engineering Challenge

Vibration, condensation and installation consistency affect fastener selection.

Potential Solution

A coated plain flange nut may be evaluated for suitable equipment mounting assemblies.

13. AI Data Center Cooling Infrastructure

AI data centers rely on cooling equipment, pumps and mechanical support systems.

Engineering Challenge

Continuous equipment operation requires dependable mechanical connections.

Potential Solution

A high-strength flange nut may be considered for appropriate pump, cooling equipment and support frame assemblies.

14. Semiconductor Manufacturing Equipment

Semiconductor equipment may contain high-load mechanical support structures.

Engineering Challenge

Mechanical stability, material compatibility and cleanliness can be important.

Potential Solution

A high-strength flange nut may be evaluated for suitable external mechanical assemblies.

Cleanroom suitability requires separate qualification.

15. General OEM Equipment Manufacturing

OEM manufacturers may require customized flange nuts for specialized equipment.

Engineering Challenge

Standard components may not provide the required combination of dimensions, mechanical strength and corrosion protection.

Potential Solution

A drawing-based Class 10 flange nut with a specified zinc-flake coating may be evaluated for production.

Installation Engineering

Correct installation is essential for high-strength flange nuts.

Step 1: Confirm the Mating Bolt

Verify the thread size, pitch and mechanical property class.

Step 2: Inspect the Nut

Check the threads, flange surface and coating condition.

Step 3: Verify the Joint Surface

Confirm the flange has sufficient bearing support.

Step 4: Check Thread Engagement

Ensure the mating bolt provides the required engagement.

Step 5: Apply the Approved Tightening Procedure

Use the specified torque or tensioning method.

Step 6: Verify the Finished Joint

Confirm seating, alignment and required joint condition.

Important Installation Factors

• Mating bolt compatibility.

• Thread engagement.

• Flange bearing area.

• Coating friction.

• Joint preload.

• Tightening torque.

• Surface hardness.

• Installation tooling.

Production Management and Assembly Efficiency

For production managers, integrated-flange fasteners may influence manufacturing efficiency.

Potential benefits include:

• Reduced loose washer handling.

• Fewer assembly components.

• Simplified parts feeding.

• Improved assembly consistency.

• Reduced risk of omitted washers.

• Easier automated fastening in suitable applications.

Production Controls

• Nut orientation.

• Thread starting.

• Coating consistency.

• Installation torque.

• Tool calibration.

• Clamp-force validation.

• Dimensional inspection.

• Lot traceability.

• Rework control.

• Supplier consistency.

The actual production process should be validated before release.

Common Engineering Problems and Troubleshooting

Problem 1: Thread Stripping

Possible causes include incompatible mechanical properties, insufficient engagement or excessive loading.

Problem 2: Inconsistent Clamp Force

Possible causes include coating friction variation or unsuitable tightening procedures.

Problem 3: Flange Bearing Damage

Possible causes include excessive local pressure or insufficient support.

Problem 4: Corrosion

Possible causes include inadequate coating protection or environmental exposure.

Problem 5: Coating Damage

Possible causes include unsuitable handling, tooling or installation conditions.

Problem 6: Joint Loosening

Possible causes include inadequate preload, joint settlement or unsuitable locking provisions.

A plain flange nut does not provide built-in prevailing-torque locking.

Problem 7: Installation Difficulty

Possible causes include thread mismatch, coating thickness or damaged threads.

Problem 8: Premature Joint Failure

Possible causes include unsuitable material properties, loading or joint geometry.

Corrective action must be based on the actual engineering requirements.

Quality Inspection and OEM Validation

Quality requirements should follow the approved drawing and customer specification.

Dimensional Inspection

Potential characteristics include:

• Thread diameter.

• Thread pitch.

• Nut height.

• Width across flats.

• Flange diameter.

• Flange thickness.

• Bearing surface geometry.

• Critical tolerances.

Mechanical Property Verification

Potential requirements include:

• Carbon steel material verification.

• Property Class 10 verification.

• Proof-load testing.

• Hardness testing.

• Heat treatment verification, where required.

Coating Verification

Potential requirements include:

• Zinc-flake coating specification.

• Coating thickness.

• Surface appearance.

• Corrosion resistance.

• Friction characteristics.

• Restricted-substance compliance.

• Coating adhesion.

Functional Assembly Validation

Depending on the application, testing may include:

• Thread compatibility.

• Installation torque.

• Torque–tension behavior.

• Clamp-force performance.

• Flange bearing contact.

• Joint retention.

• Vibration performance.

OEM Documentation

Depending on customer requirements, documentation may include:

• Approved engineering drawings.

• Material specifications.

• Mechanical test reports.

• Dimensional inspection reports.

• Coating specifications.

• Corrosion test reports.

• Restricted-substance declarations.

• First article inspection.

• Production traceability.

• Process control records.

• PPAP documentation, where applicable.

These are potential customer-defined deliverables and must be supported by actual production and inspection records.

Custom High-Strength Steel Flange Nuts to Engineering Drawings

JUXIN FASTENERS supports OEM inquiries for high-strength steel flange nuts, DIN 6923 hexagon flange nuts and customized coated threaded fasteners.

Custom requirements may include:

• Metric thread diameter.

• Thread pitch.

• Nut height.

• Width across flats.

• Flange diameter.

• Flange thickness.

• Property Class 10.

• Steel grade.

• Heat treatment.

• Dacromet-type zinc-flake coating.

• Coating thickness.

• Coating friction.

• Corrosion resistance.

• RoHS requirements.

• Inspection criteria.

• Packaging.

• Production volume.

Manufacturing feasibility and quotation depend on the approved technical requirements.

Frequently Asked Engineering and Procurement Questions

What are high-strength steel flange nuts?

They are steel hexagon nuts with an integral flange and specified high-strength mechanical properties.

What is the common American product name?

High-Strength Steel Flange Nuts is a recognized American industrial catalog designation.

What is DIN 6923?

DIN 6923 is a recognized German product standard for hexagon flange nuts.

What is Property Class 10?

It identifies specified mechanical properties for metric steel nuts under the applicable standard.

Are Class 10 nuts the same as SAE Grade 8 nuts?

No. They belong to different strength classification systems.

What is the advantage of a plain flange?

It provides an enlarged bearing surface and may eliminate the need for a separate flat washer in suitable assemblies.

Are plain flange nuts self-locking?

No. A plain flange does not create built-in prevailing-torque locking.

What is Dacromet coating?

Dacromet is a commercial designation associated with zinc-rich protective coating technology.

What is the broader engineering term?

Non-electrolytically applied zinc-flake coating.

What is ISO 10683?

It specifies requirements for non-electrolytically applied zinc-flake coating systems on steel fasteners.

Does zinc-flake coating automatically meet RoHS?

No. Compliance depends on the actual coating chemistry and supporting documentation.

Does zinc-flake coating eliminate hydrogen embrittlement risk?

No. The coating process may reduce certain risks, but the complete manufacturing process must be evaluated.

Does coating affect tightening torque?

Yes. Coating friction can affect the relationship between applied torque and achieved clamp force.

What metric sizes are listed?

M4, M5, M6, M8, M10, M12, M14, M16 and M20.

Are metric and UNC flange nuts interchangeable?

No. Metric and Unified inch-series threads are not directly interchangeable.

Can JUXIN FASTENERS evaluate custom Class 10 flange nut drawings?

Yes. Customer-specific inquiries can be reviewed according to the supplied drawings and production requirements.

Request a Custom High-Strength Steel Flange Nut RFQ

JUXIN FASTENERS supports OEM sourcing and technical inquiries for Class 10 high-strength steel flange nuts, DIN 6923 hexagon flange nuts and Dacromet-type zinc-flake-coated fasteners.

For a new OEM program or an existing production component, please provide:

• 2D engineering drawing or 3D CAD file.

• Required standard and edition.

• Metric thread diameter and pitch.

• Required mechanical property class.

• Mating bolt specification.

• Nut height and width across flats.

• Flange diameter and thickness.

• Plain or serrated flange requirement.

• Steel grade and heat treatment requirements.

• Dacromet or zinc-flake coating specification.

• Coating thickness.

• Corrosion resistance requirements.

• Friction and torque–tension requirements.

• RoHS or other restricted-substance requirements.

• Operating environment.

• Quality and inspection requirements.

• Initial order quantity.

• Estimated annual production volume.

• Target delivery schedule.

Our team can review the technical requirements and discuss manufacturing feasibility, engineering clarification and quotation.

JUXIN FASTENERS

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

Email: info@juxinfasteners.com

Submit Your Engineering Drawings for a Custom DIN 6923 Class 10 High-Strength Steel Flange Nut RFQ.

Packaging Standard

At Juxin Fasteners, we apply standardized export packaging to ensure product protection, traceability, and compliance with international logistics requirements.

1. Standard Export Packaging

Unless otherwise specified, all products will be packed according to our factory standard export packaging, which includes:

Moisture-resistant inner protection

Poly bag or small box packing as required

Reinforced export cartons

Clear labeling with part number, specification, batch number, and quantity

Palletizing for sea or air shipment when necessary

Our standard packaging is designed to ensure safe transportation, efficient warehousing, and long-distance international shipping.

2. Customized Packaging Options

We also provide customized packaging solutions according to customer requirements, including but not limited to:

Private labeling

Customized barcodes

Specific carton dimensions

Retail packaging

Special pallet configuration

Customer-specific marking and identification

So that you know, customized packaging may involve additional costs and extended lead time depending on the complexity of the requirements.

3. Compliance & Quality Assurance

All packaging processes are controlled under our ISO 9001 quality management system to ensure consistency, traceability, and product integrity throughout the supply chain.