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Plastic Injection Mold Making

Plastic injection mold making is a process of transforming a product design into a precision tool that can reliably and consistently mass-produce plastic parts. Alpine Mold provides globally high-quality, precise, complex injection mold toolings.

 Focusing on Rapid Toolings and Production Toolings

 Mold Design an Mold Build and Trial All In-House

 100+ World-class Equipment to Reach ±0.01mm Tolerance

Familiar with mold standards: HASCO, DME, MISUMI, LKM.

Completed 12,000+ Projects With a Zero-failure Record

 

Our Capabilities

At Alpine Mold, we don’t just build molds —we build production-ready tooling engineered for stability, precision, and long-term performance.

Engineering Integrity

 Mold design developed from your 2D/3D data
 DFM and Moldflow validation
 Balanced gating and optimized cooling
 Structural robustness for high-volume production

Stability is engineered before steel is cut.

Precision Toolmaking

 High-speed CNC, EDM, wire cutting, grinding
 Dimensional control up to ±0.01 mm
 Over 10,000 molds delivered to global customers
 Familar with HASCO, DME, LKM Mold Standard

Precision is controlled throughout the build process.

Validated for Production

 Steel hardness verification
 Core & cavity dimensional inspection
 Strict Quality Control: IQC, IPQC, FQC
 Mold Trial Report and Sample inspection

Each mold is validated— not just for approval.

 

Types of Mold Manufacturing Services We Offer

 
The mold for your custom plastic parts can be a big investment, so we'll provide you with a valuable understanding of basic injection mold construction types and the benefits before you invest.

By Production Volume:

 Prototype Tooling
Designed for rapid prototyping and small-batch production, aiming to address market uncertainties. These molds have a short lifespan, typically ranging from a few hundred to 10,000 shots.

 production Tooling
Designed for stable, large-scale production, aiming to ensure long-term stable manufacturing. These molds have a long lifespan, generally exceeding 100,000 to 3 million+ shots.
 

By Material:

 Aluminum Molds
Ideal for prototyping and small-to-medium batch production. Suitable for relatively simple structures, rapid revisions, and validation-focused products. 

 Steel Molds
Ideal for long-term and large-scale production. Suitable for complex structures or products with stringent requirements. Provides superior wear resistance, dimensional stability, and consistent surface finish.
 

By Feeding system:

 Cold runner molds
Suitable for the production of plastic products with limited budgets, small to medium production volumes, and where material waste is not a major concern. They have a simple structure, low cost, and are easy to maintain.

 Hot runner molds
suitable for high-end, high-volume plastic parts with demanding aesthetic requirements. Hot runner molds eliminate sprue waste, saving material, resulting in better appearance, and higher production efficiency.
Many clients worldwide have had various types of molds manufactured at Alpine Mold

"I want to congratulate Yuki for the great job she has done along these very important projects of 10 + 12 + 1 molds for Z***, so far. Now we have received the injected parts with very good quality, we are very pleased for this. In a month aprox, we will receive the molds (10 + 12) and we can verify the good quality we expect of the Alpine team. By sure, they are as good as the work done so far. Looking forward to develops new projects with Alpine."

Z*** Group

Purchasing Director

"I have collaborated with Alpine Mold on many injection tooling projects for automotive components. The precision and requirements for our automotive parts are extremely high, yet Alpine Mold consistently delivered molds that met our strict standards. Their expertise in complex tooling, reliable quality, and on-time delivery and great communciation make them a trusted mold partner for our global projects. I highly recommend Alpine Mold."

GM

Tooling Engineer

Challenges You Might be Facing

In the past, you may have faced the following challenges with your current mold suppliers.
 
Excessive Molding Defects
                   
Issues such as burn marks, flow lines, air voids, sink marks, short shots, and flashes frequently occur.
                                                                Increased Hidden Costs                                   
Long injection cycle times and poor communication lead to rising hidden costs.
 
Repeated Mold Trials  
                            
Frequent mold trials and repairs due to design or process issues often delay project timelines.

Delayed Delivery Times                                                                        
Your current mold suppliers tend to provide various excuses, resulting in repeated delays in delivery dates.

How Alpine Mold Solved the Problems

What sets a excellent mold supplier apart is their ability to actively coordinate, communicate effectively, and accurately resolve issues.
Mold Design
With a rigorous mold design process, most molds are ready for mass production after just one trial.

  Our in-house mold design team,consisting of 13 engineers, with over 30 years of mold design experience and are equipped with state-of-the-art software, including Solid Works., is committed to providing optimal and innovative mold design solutions.

  We work closely with you to understand functionality, performance, and environmental requirements, providing expert material selection recommendations to enhance product quality, reduce production costs, and ensure sustainability.

  Provide detailed Design for Manufacturability (DFM) reports and Mold Flow analysis to identify potential issues, finalizing mold designs within 2-3 days and providing 3D mold drawings for your confirmation.
Mold Machining
Our world-class tooling machining equipment achieves precision of up to 0.001 mm.
 
 Our annual production exceeds 800 sets of molds, adhering to industry standards such as HASCO, DME, and LKM. We primarily export our molds to Europe, North America, South America, the Middle East, Australia, Russia, South Korea, Turkey, and more.
  We have imported over 100 sets of high-precision manufacturing equipment from Switzerland, Germany, and Japan, including high-speed CNC machines, Charmilles mirror EDM machines, wire cutting machines, and Zeiss CMM machines, ensuring that mold accuracy can reach 0.001 mm.

  Our mold trial technicians have over 20 years of hands-on experience, allowing them to quickly identify and effectively resolve issues during mold trials, which enables over 92% of our export molds to successfully pass the trial on the first attempt, reducing downtime and enhancing productivity.                                                                           
Quality Control

Our main quality control procedures for every export mold are as follows:

 Mold Design Control
 Mold Steel Hardness Inspection
 Heat Treatment Hardness Inspection
 Mold Electrodes Inspection
 ​​​​​Mold Core and Cavity Steel Dimension Inspection                                                             

 Mold Pre-Assembly Inspection
 Mold Trial Report and Sample Inspection

​​​​​ Fixture Inspection                                                                                                                    

 Final Inspection Before Shipment
 Export Mold Packaging Inspection

 

Delivery Time
Provide weekly progress reports to keep you informed of the status at all times.

  Our dedicated project management team, consisting of 17 project managers, has successfully completed over 10,000 plastic injection mold tooling projects with a zero-failure record.

  Each project is assigned a project manager and the project cycle is strictly controlled according to the schedule.We provide a detailed mold progress schedule and weekly updates, keeping you informed of the project's status at all times.

  Provide online mold trial video to let you know how the mold is running, and send you the samples for comfirmation, ensuring they meet your requirements.

Workflow of Our Mold Making Services

At Alpine Mold, our systematic mold manufacturing workflow ensures precise-engineered solutions, and this process is typically divided into six stages:

1.DFM Report and Mold Flow

After the customer places an order, our engineers will first make a DFM report and mold flow analysis based on the 2D and 3D drawings for customer check and confirmation.This allows us to proactively mitigate potential risks in mold design and injection molding production.

2.3D Mold Drawing Design

After the customer confirms that the DFM report and mold flow analysis are correct,
our engineers will take around 2-3 days to finalize the mold design and provide the client with 3D mold drawings for confirmation.
 

3.Precision Mold Machining

After the customer confirms that the mold design is correct, we begin mold fabrication, including drilling, CNC machining, EDM, wire cutting, grinding, polishing, etc. During this process, we will update our customer with the mold processing report every week.
 

4.Mold Assembly and Mold Trial

After the mold components are assembled, we conduct comprehensive mold assembly inspection and functional testing. During the mold trial phase, we meticulously record key injection molding parameters, analyze product defects, and optimize the mold and process accordingly.

5.T1 Sample Confirmation

After the first mold trial, we will inspect the dimensions of the T1 samples to confirm whether they meet the tolerance requirements specified in the customer's 2D drawings. At the same time, we will send a complete dimensional test report and the samples to the customer for review and confirmation.

6.Packaging and Shipping

After receiving customer sample confirmation, we will thoroughly clean and apply rust prevention treatment to the mold, and use reinforced, shock-resistant wooden crates for packaging to ensure the mold is delivered safely and undamaged to the customer's designated location on time.
Why We Stand Out
At Alpine Mold, we combine strong engineering expertise, advanced manufacturing equipment, and extensive experience in export mold manufacturing for global customers. Our team delivers precision molds that meet international standards and perform reliably in customers’ production facilities worldwide, helping reduce project risk, improve efficiency, and bring products to market faster.

Decades of Engineering

 
Our founder Richard Lei has 33 years of experience in the mold industry and leads a skilled 25-person engineering team, including 6 senior engineers with over 20 years of expertise.
 

Global Project Management

 
Supported by a dedicated project management team, we provide clear schedules, weekly progress updates, and efficient communication throughout the entire mold development process, ensuring smooth collaboration with customers worldwide.

10,000+ Molds Delivered

 
Since 2002, Alpine Mold has successfully completed 10,000+ mold projects for customers worldwide, maintaining a zero-failure record. This extensive project experience enables us to deliver reliable tooling solutions that meet the demanding requirements of global production.

Rapid Delivery

 
With efficient in-house manufacturing and streamlined project management, our standard mold lead time is typically 4–6 weeks, ensuring fast delivery while maintaining high precision and reliable quality.
 
Our Strength
Injection Mold Making Workshop 

40+

Mold Fabrication 
Department

15+

CNC Machines
 

20+

Mold Design Department

10+

EDM Machines
 

20+

CNC Machining Department

15+

Wire Cutting Machines
 

10+

EDM Machining
Department

30+

Injection Machines
 

Our Gallery of Plastic Injection Molds

Plastic Injection Mold: The Ultimate FAQ Guide

Today’s guide will help understand everything you have been asking about plastic injection mold.
So, if you want to be an expert in plastic injection mold , here is all information you have been looking for.

What is Plastic Injection Mold Manufacturing?

Plastic injection mold manufacturing refers to the complete process of transforming tool steel or aluminum alloy materials into a durable, repeatable, precision mold capable of producing plastic parts. This is achieved through professional mold design and processes including CNC machining, EDM, wire cutting, polishing, assembly, and debugging etc,, based on the product's 2D and 3D design drawings.

When the mold is installed and running on the injection molding machine, the plastic raw material is heated and melted, then injected into the mold cavity under high pressure. After cooling and solidification, the desired plastic part is formed. The overall quality and efficiency of the injection molding process are highly dependent on the precision of the injection mold manufacturing.

Although the initial investment in injection mold manufacturing is relatively high, the cost per part decreases rapidly as production volume increases. For high-volume requirements, this represents the most cost-effective manufacturing solution.

What Materials are Used in Injection Molding Tools?

1. Tool Steel

Tool steel is the most widely used material in injection molds, primarily due to its high strength, excellent wear resistance, and long service life. Tool steel is suitable for most engineering plastics and long production runs. It is commonly used in medium to high-volume production molds.
Types: P20, NAK80, 718, 718H, 738, H13, S7, SKD61

2.Stainless Steel

Stainless steel is more expensive than tool steel. Stainless steel offers superior corrosion resistance, wear resistance, and dimensional stability, resulting in a longer service life. So,it is particularly suitable for projects requiring extremely high surface quality and cleanliness, such as optical products, medical devices, and food-grade components.
Types: S136, S136H, 420, 2083, 316L, 304

3. Aluminum

Aluminum molds have a lower cost than tool steel and stainless steel. Aluminum alloys are easy to process quickly and are inexpensive, but they have low hardness and poor wear resistance. They are suitable for producing prototype molds or small-batch production molds, with shorter mold life and faster lead times.Types: 7075, 6061, 5052

What are Advantages of Plastic Injection Mold?
It enables manufacturers to produce parts with tight tolerances and excellent dimensional accuracy, making it ideal for complex components in industries such as electronics, automotive, and medical devices.

It also enables high-volume production with stable cycle times,thereby effectively reducing the cost per part and making it one of the most economical manufacturing methods for large production runs.

Also, it can create complex shapes, thin walls, and detailed features that would be difficult or impossible to achieve with other manufacturing processes.

It also can achieve smooth surfaces, textures, or high-gloss finishes directly from the mold, often eliminating the need for secondary finishing operations.

It is designed for long production cycles and can produce hundreds of thousands or even millions of parts with proper maintenance and stable performance.
What are the Limitations of Plastic Injection Mold?
Because it requires precision design and manufacturing, which means the initial tooling investment can be relatively high, especially for complex or multi-cavity molds.

Depending on its complexity, its development cycle may take several weeks or even longer, because the mold must be designed, manufactured, assembled and tested before it can be put into production.

Due to the high upfront tooling cost, injection molds are more suitable for medium to high-volume production than for small production runs.
What Are the Industries That Use Injection Molds?
Injection molds are widely used in many industries because they enable the mass production of high-precision plastic parts with consistent quality and high efficiency.
 Automotive Industry: such as dashboards, interior trim parts, connectors, sensor housings, and lighting components.
​​​​​ Consumer Electronics: such as switches, connectors, device housings, and structural plastic components.
 Medical Industry: such as medical devices, laboratory equipment, diagnostic components, and disposable medical plastic parts.
 Home Appliance Industry: such as washing machine components, refrigerator parts, air conditioner housings, and kitchen appliance components.
 Security Industry: such as surveillance camera housings, alarm system components, access control devices, and fire detection equipment.
 Packaging Industry: such as plastic caps, closures, containers, and other packaging components.
 Industrial Equipment: such as machine housings, gears, and durable structural plastic parts used in industrial machinery.
 Consumer Products: such as toys, storage boxes, cosmetic packaging, and various household plastic products.
How to Make a Plastic Injection Mold?
Manufacturing a plastic injection mold is a complex engineering process that requires precise design, machining, and testing. Below are the key steps typically followed by professional mold manufacturers to produce a high-quality injection mold.
 
  1. Receive Mold Order and Drawings: Receive the mold order together with the 2D and 3D part drawings and confirm material, tolerances, surface finish, and expected production volume.
  2. Perform DFM Analysis: Evaluate wall thickness, draft angles, parting line position, gate feasibility, and potential molding risks to ensure the design is suitable for manufacturing.
  3. Confirm DFM with Customer: Send the DFM report to the customer and confirm the proposed design optimizations before starting mold design.
  4. Conduct Moldflow Analysis: Simulate the filling behavior to optimize gate location, flow balance, cooling layout, and prevent potential defects such as air traps or weld lines.
  5. Complete Mold Design: Develop the detailed mold design including core and cavity structure, runner and gate system, cooling channels, ejector layout, and side actions if required.
  6. Obtain Mold Design Approval: Submit the mold design drawings to the customer and obtain formal approval before starting mold manufacturing.
  7. Prepare Mold Materials: Select suitable mold steel and mold base standards and order all required materials and standard mold components.
  8. Machine Mold Components: Use CNC milling, EDM, and wire EDM machining to manufacture the core, cavity, and precision inserts.
  9. Perform Mold Fitting and Assembly: Assemble all mold components and ensure accurate alignment, proper sealing, and smooth movement of the mold mechanisms.
  10. Apply Surface Finishing: Perform polishing or texturing according to the specified surface finish requirements of the plastic part.
  11. Conduct Mold Trial: Test the mold on an injection molding machine to verify part quality and optimize molding parameters.
  12. Customer Sample Approval: Submit trial samples to the customer for confirmation and approve the mold for mass production once the parts meet all requirements.

How Do Injection Molds Work?

Let’s break it down

✅ Plastic pellets go into the hopper, then the screw melts and injects them into the mold cavity.

✅ Cooling starts right after filling, so the molten plastic quickly turns solid.

✅ Once cooled, ejector pins push the part out —and the cycle starts again for the next shot.


 
How Much Does a Plastic Injection Mold Cost?
The cost of a plastic injection mold can vary widely depending on the complexity of the part, mold size, materials, and manufacturing requirements.

Simple molds for small plastic parts may cost around $1,000 to $5,000.

Medium-complexity molds with better steel and higher precision typically range from $5,000 to $20,000.

Highly complex molds with multiple cavities, sliders, or hot runner systems can cost $20,000 to $100,000 or more.

Additional factors such as mold steel selection, cavity number, surface finish requirements, and production volume can also significantly influence the final mold price.
Why Do Plastic Injection Molds Cost So Much?
Plastic injection molds can be expensive, typically ranging from $1,000 to over $100,000, depending on complexity and size.
Plastic injection molds can be expensive due to several key factors:

Quality of Materials: High-quality molds are constructed from premium metals, such as aircraft-grade aluminum or hardened mold steels, which are essential for producing durable and precise parts.
Skilled Labor: Mold makers are highly skilled professionals who often spend years, if not decades, honing their craft. Their expertise is crucial for designing and manufacturing effective molds.
Advanced Tools and Technology: Mold makers require expensive tools, including specialized software, CNC machinery, and precision fixtures, all of which contribute to the overall cost of mold production.
Complexity and Size: The time required to create a mold can vary significantly, ranging from a few days to several weeks, depending on the complexity and size of the end product. More intricate designs naturally increase the time and effort involved.
How to Potentially Reduce Mold Costs?
 Optimize Part Design: Simplify the product geometry and avoid unnecessary undercuts or complex structures that require additional mold mechanisms.
 Maintain Uniform Wall Thickness: Design consistent wall thickness to improve moldability and reduce the need for complex gating or cooling systems.
 Minimize Side Actions: Reduce the use of sliders, lifters, or unscrewing mechanisms whenever possible to simplify the mold structure.
 Select Appropriate Mold Steel: Choose mold steel based on production volume and material requirements instead of always selecting high-end steels.
 Use Standard Mold Components: Apply standard mold bases and standard parts to reduce machining time and component costs.
 Reduce Surface Finish Requirements: Avoid unnecessary high polishing or special textures unless required for the product function.
Optimize Gate and Runner Design: Proper gate placement and runner layout can improve filling balance and reduce mold complexity.
 Consider Multi-Cavity Molds Carefully: Use multi-cavity molds for large production volumes to reduce the cost per part.
 Conduct Early DFM and Moldflow Analysis: Identifying design issues early helps avoid expensive mold modifications later.
Work with an Experienced Mold Manufacturer: An experienced mold maker can recommend design optimizations that reduce cost while maintaining quality.
How Long Does It Take to Make a Plastic Injection Mold?
The manufacturing time for a plastic injection mold typically ranges from 3 to 8 weeks, depending on the complexity of the part, mold size, and required mold structure.

Simple molds: For small plastic parts with a simple structure and no side actions, mold manufacturing usually takes about 3 to 4 weeks.

Medium complexity molds: For molds that include sliders, lifters, or higher precision requirements, the typical lead time is around 4 to 6 weeks.

 
Complex molds: Large molds, multi-cavity molds, or molds with complex mechanisms may require 6 to 8 weeks or longer to complete.

The overall timeline usually includes DFM analysis, mold design, steel preparation, CNC machining, EDM processing, mold fitting, polishing, assembly, and mold trial.

Working with an experienced mold manufacturer and completing design reviews early can help reduce delays and ensure the mold is delivered on schedule.
What Is the Life Expectancy of a Plastic Injection Mold?
The life expectancy of a plastic injection mold typically ranges from 100,000 to more than 1,000,000 cycles, depending on mold material, plastic resin, mold design, mold manufacturing and maintenance.

Prototype molds: Aluminum or soft steel molds used for low-volume production usually last around 5,000 to 50,000 cycles.

Standard production molds: Molds made from pre-hardened steel such as P20 generally last around 300,000 to 500,000 cycles under normal production conditions.

High-volume production molds: Hardened steel molds such as H13 or S136 can achieve 1,000,000 cycles or more when properly designed and maintained.

How to Design a Mold for Plastic Injection?

Designing a plastic injection mold is a critical step in the injection molding process because the mold determines the final product quality, production efficiency, and manufacturing cost. A well-designed mold ensures stable production, accurate dimensions, and consistent surface quality.

Key Principles of Injection Mold Design
Understand the Product Requirements: Before designing the mold, engineers must clearly understand the product function, plastic material, tolerances, surface finish, and expected production volume.
Ensure Proper Draft Angles: Draft angles should be applied to vertical surfaces so that the molded part can be ejected smoothly without damaging the product or mold.
Maintain Uniform Wall Thickness: Consistent wall thickness helps avoid defects such as warpage, sink marks, and uneven cooling during the injection process.
Reduce Unnecessary Complexity: Avoid excessive undercuts or complicated structures whenever possible to simplify mold design and reduce manufacturing costs.
Consider Material Shrinkage: Different plastic materials shrink during cooling, so mold designers must compensate for shrinkage when creating the core and cavity dimensions.

Basic Process of Injection Mold Design
1. Analyze the Plastic Part: Review the 3D model to evaluate product geometry, material type, shrinkage rate, wall thickness distribution, and overall molding feasibility.
2. Determine the Mold Structure: Decide the appropriate mold type such as a two-plate mold, three-plate mold, or molds with sliders or lifters depending on the part geometry.
3. Define the Parting Line: Identify the optimal parting surface so the mold can open easily and the molded part can be released smoothly.
4. Design the Core and Cavity: Create the core and cavity geometry based on the part model while considering shrinkage compensation and dimensional tolerances.
5. Design the Runner and Gate System: Select the gate type and runner layout to ensure balanced melt flow and stable filling of the plastic material.
6. Design the Cooling System: Arrange cooling channels within the mold to maintain uniform temperature distribution and reduce cycle time.
7. Design the Ejection System: Position ejector pins, sleeves, or plates carefully so the molded part can be released without deformation or surface damage.
8. Design Venting Channels: Add venting areas to allow trapped air to escape during injection and prevent burn marks or short shots.
9. Select Mold Materials and Components: Choose suitable mold steel, mold bases, and standard components according to production requirements.
10. Validate the Mold Design: Perform DFM review and Moldflow analysis to verify the mold design and identify potential manufacturing issues.

Important Design Considerations
Ribs and Reinforcements: Ribs are often used to improve structural strength while keeping wall thickness relatively thin.
Corner Radii and Fillets: Rounded corners improve material flow and reduce stress concentration in molded parts.
Surface Finish Requirements: The mold polishing level must match the surface quality required for the final product.
Production Volume: The expected production quantity influences the selection of mold steel and mold structure.

What Tests need to be Done before Exporting Molds?

✅ Mold Appearance: As per customer signage, located on the operator's side.
✅Mold Transportation: Ensure the lifting holes of each template are centered.
✅Mold Assembly and Disassembly Mechanism: Tight-fitting inserts or components should have removable threads or holes.
✅Pouring System: Specifications for the diameter of the positioning ring.
✅Cooling System: Water pressure test should show no leaks.
✅Ejection System and Reset: Ejection should be smooth, without jamming or unusual noises.
✅Slider Mechanism: The fixed slider inserts should not wobble sideways.
✅Inclined Ejector Mechanism: Parts of the inclined ejector mechanism should be marked with codes.
✅Cavity and Core: According to drawing requirements, the hardness values of the cavity and core must meet standards.
✅Inserts and Pins: Inserts/pins should be assembled tightly and not be too loose to fall freely.
✅Hot Runner System: The inner cavity should have rounded transitions, with no sharp corners.
✅Oil Cylinders and Air Cylinders: Oil and air cylinders should have positioning safety devices.
✅Other Components: The bottom of the guide sleeve should be designed for venting.
Who Owns the Tool?
The customer owns the tool because they pay for the mold development and manufacturing costs, whether it remains at the manufacturer for production or is shipped to the customer.

Option 1: Keep the tool at the manufacturer for production:
The customer owns the mold, and the manufacturer stores, maintains, and uses it to produce parts according to the production agreement.

Option 2: Ship the tool to the customer after completion:
The customer owns the mold, and the manufacturer ships it to the customer so it can be installed and used in the customer’s own factory.
How Can I Get an Injection Mold Quotation?
To receive an accurate injection mold quotation, the mold manufacturer usually needs several key pieces of information about the product and production requirements.

Provide 3D or 2D Drawings:
Send the product design files in formats such as STEP, IGS, or X-T so engineers can review the geometry and mold structure.

Confirm the Plastic Material:
Specify the material type such as ABS, PP, PC, PA, or other resins because different materials affect mold design and shrinkage.

Estimate Production Quantity:
Share the expected production volume or annual demand since this helps determine the mold steel, number of cavities, and mold life.

Surface Finish Requirements:
Indicate whether the part requires polishing, texture, painting, or other surface treatments.
 
Provide Additional Requirements:
Include information such as color, tolerance requirements, or special packaging if applicable.

Once these details are received, the mold manufacturer can review the design, conduct a DFM analysis if needed, and provide a detailed quotation.
What Types of Mold Surface Finish Options Are Available?
Plastic injection molds can be finished with different surface textures depending on the product’s appearance, functionality, and design requirements.
At Alpine Mold, we offer a wide range of mold surface finishing options, including SPI polishing standards, VDI texture, MoldTech texture, Yick Sang texture, laser texturing, and customized surface textures according to customer specifications.
What Are Your Payment Terms for Mold?
Our standard mold payment terms are as follows:
40% deposit by T/T before starting mold manufacturing.
30% second payment after mold completion and before sending the T1 (first trial) samples.
30% final balance after customer approval of the final samples.
How Do You Pack Plastic Injection Molds?
Plastic injection molds are carefully packed to ensure safe transportation and prevent damage during shipping.
Step 1: Apply anti-rust oil to the mold surfaces to prevent corrosion during transportation.
Step 2: Wrap the mold with protective plastic film to protect it from moisture and dust.
Step 3: Place the wrapped mold into a strong wooden crate and securely fix it to prevent movement during shipping.
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Telephone: +86 18126252427
WhatsApp: +86 18126157548
 
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