From Design to Physical Prototype

Prototype Making

Verify your design before production. Prototype making helps identify issues with size, structure, assembly, and surface details before tooling and mass production.

PROJECT INFORMATION

What Files Are Needed for Prototype Making?

Prototype making usually requires a 3D model or design files to define the product’s dimensions, structure, and appearance. Complete design information makes it easier to determine the appropriate prototyping method and production requirements.

01

3D Model Files

STL / OBJ / STEP / IGES

02

2D Drawings

Dimensions and technical details

03

Reference Images

Appearance and design references

04

Material Requirements

Resin / PVC / ABS / Soft Vinyl, etc.

05

Surface & Color Requirements

Finish, texture, painting and color references

06

Assembly Requirements

Part connections and assembly structure

PROTOTYPING METHODS

Which Prototyping Method Is Right for Your Product?

The right prototyping method depends on the product's material, structure, quantity, final manufacturing process, and what needs to be verified. Some prototypes can be made directly by 3D printing or CNC machining, while others may require prototype tooling to reproduce the intended material and production effect.

01 SCULPTURE

Collectible & Resin Statues

Common Methods 3D Printing / Resin Casting
Prototype Tooling Depends on Quantity
What It Verifies Shape, proportions, details, and surface finish
02 INJECTION

PVC / ABS Injection Toys

Common Methods 3D Printing / CNC Machining
Prototype Tooling Usually No Production Mold
What It Verifies Structure, dimensions, assembly, and part separation
03 SOFT VINYL

Soft Vinyl / Rotocast Products

Common Methods 3D Printing / Hand-Made Prototype / Prototype Tooling
Prototype Tooling May Be Required
What It Verifies Shape, wall thickness, part separation, assembly, and material effect
04 EPOXY / RESIN

Epoxy Resin / Doming Products

Common Methods 3D Printed Master / CNC Master / Silicone Mold Casting
Prototype Tooling Usually Requires a Silicone Mold
What It Verifies Transparency, color, resin filling, bubbles, and surface finish
05 PU / RESIN

PU / Resin Cast Parts

Common Methods 3D Printed Master / Silicone Mold Casting
Prototype Tooling Usually Requires a Silicone Mold
What It Verifies Appearance, dimensions, surface finish, and casting results
06 FUNCTIONAL

Functional Products

Common Methods CNC Machining / 3D Printing / Functional Prototyping
Prototype Tooling Depends on Final Process
What It Verifies Dimensions, strength, moving parts, fit, and function
07 COMPLEX

Complex Multi-Part Products

Common Methods 3D Printing / CNC Machining / Hand Assembly
Prototype Tooling Depends on Parts and Process
What It Verifies Part separation, connections, assembly, and clearances
08 TRANSPARENT

Products With Transparent Parts

Common Methods 3D Printing / CNC Machining / Mold Casting
Prototype Tooling Depends on Material and Effect
What It Verifies Transparency, dimensions, fit, and surface quality
09 PAINTING

Products Requiring Painting

Common Methods 3D Printing / Resin Casting / CNC Machining
Prototype Tooling Depends on Prototype Quantity
What It Verifies Colors, masking, surface treatment, and paint application
10 PRODUCTION TEST

Products Requiring Production Process Validation

Common Method Prototype Made Using the Intended Production Process
Prototype Tooling Production Tooling May Be Required
What It Verifies Material, manufacturing process, structure, assembly, and actual production results
i
Prototype Tooling Is Not the Same as Production Tooling

Some products require silicone molds, sample molds, or other prototype tooling to reproduce the intended material and production effect. These tools are used for prototyping and testing and are different from steel molds or other tooling used for mass production.

PROTOTYPE VERIFICATION

What Should Be Verified During Prototyping?

A prototype should be checked beyond its appearance. Dimensions, structure, assembly, surface treatment, and packaging should be reviewed before the design moves into tooling or mass production.

01

Dimensions

Overall size Part dimensions
Confirm that the actual prototype dimensions match the approved design requirements.
02

Proportions

Scale Shape relationships
Check whether the proportions and scale of the physical prototype match the intended design.
03

Structure

Internal structure Wall thickness Structural strength
Check whether the structure and wall thickness are suitable for the intended material and manufacturing process.
04

Part Connections

Joints Fixing methods Connection points
Verify how individual parts connect and whether the connection method is suitable for production.
05

Assembly

Assembly sequence Fit Clearance
Check whether the parts can be assembled correctly and whether there are any fitting or clearance issues.
06

Moving Parts

Movement range Interference Function
Test moving components to identify interference, restricted movement, or functional problems.
07

Surface Finish

Texture Surface finish Surface defects
Review the surface condition, texture, finish, and visible defects before prototype approval.
08

Color & Painting

Color matching Paint application Masking
Compare the prototype with approved color references and check painting and masking results.
09

Packaging Fit

Product size Package dimensions Product placement
Check whether the finished product fits the intended packaging and whether there is sufficient space for each component.
10

Production Requirements

Material Manufacturing process Production feasibility
Confirm that the approved prototype is compatible with the intended material and production process.
Prototype approval should cover both appearance and production requirements.

A prototype may look correct but still require structural, assembly, material, or manufacturing adjustments before tooling and mass production.

FROM PROTOTYPE TO PRODUCTION

How Does a Prototype Move Into Mass Production?

Prototype approval is an important design verification step, but it does not mean the product is immediately ready for tooling. Before mass production, the approved design must be reviewed and prepared for the final manufacturing process.

01

3D Model

The 3D model defines the product's shape, dimensions, structure, and part configuration.

02

Prototype

A physical prototype is produced to verify the design and identify issues that may not be visible in the 3D model.

03

Prototype Approval

The prototype is checked for dimensions, proportions, structure, assembly, surface finish, color, and other project requirements.

04

Production Preparation

The approved design is reviewed for part separation, wall thickness, draft angles, material requirements, and assembly structure.

05

Tooling

Production molds or other required tooling are manufactured based on the finalized production-ready design.

06

Mass Production

The approved material, tooling, colors, assembly specifications, and production requirements are used for the production run.

PRODUCTION CHECK

Prototype Approval ≠ Production-Ready Design

Prototype approval confirms the physical sample, but the 3D model may still require production adjustments before tooling. The final design must be compatible with the selected material, manufacturing process, tooling structure, and assembly requirements.

PROTOTYPE COST & LEAD TIME

What Determines Prototype Cost and Lead Time?

Prototype cost and lead time vary by project. They depend on the product size, design complexity, prototyping method, material, finishing requirements, quantity, assembly, and the amount of model modification required.

01

Product Size

Larger prototypes generally require more material, longer production time, and potentially different manufacturing methods.

02

Model Complexity

Complex shapes, fine details, hollow structures, undercuts, and multiple parts can increase preparation and production time.

03

Prototype Quantity

Making multiple identical prototypes may require a different production method, mold, or casting process.

04

Prototyping Method

3D printing, CNC machining, resin casting, hand-made prototyping, and other methods have different costs and production times.

05

Material

Different materials have different processing requirements, material costs, and finishing characteristics.

06

Surface Treatment

Painting, polishing, texturing, transparent effects, color matching, and other finishing requirements can add production steps.

07

Assembly Requirements

Products with multiple parts, moving components, or complex connections require additional assembly and fitting work.

08

Model Modification

If the 3D model needs structural changes or production adjustments before prototyping, additional modeling time may be required.

PROJECT DIFFERENCES

Why Can Prototype Quotes Vary So Much?

Two products with the same size may have very different prototype costs. The required production method, materials, finishing, assembly, and design complexity can significantly change the amount of work involved.

SIMPLE PROTOTYPE
Simple Model Basic geometry and structure
↓
Direct Prototyping Single-step prototyping method
↓
Basic Finish Limited surface treatment
↓
Lower Prototype Cost
COMPLEX PROTOTYPE
Complex Model Fine details and multiple parts
↓
Multiple Processes Different methods or prototype tooling
↓
Finishing + Assembly Painting, fitting, and additional work
↓
Higher Prototype Cost
LEAD TIME

Prototype Lead Time Also Depends on the Production Requirements

Lead time is measured from the point when the required design files and specifications are confirmed. Model preparation, prototyping method, material, finishing, assembly, and design modifications can all affect the final production schedule.

ACCURATE PROTOTYPE ESTIMATE

Prototype Cost and Lead Time Require Project-Specific Evaluation

An accurate estimate can be provided after reviewing the product design and prototype requirements.

01 3D Model
02 Dimensions
03 Quantity
04 Material
05 Finishing
06 Assembly
Submit Design for Evaluation →
PROTOTYPE MAKING FAQ

Frequently Asked Questions About Prototype Making

Common questions about prototype methods, modifications, tooling, cost, lead time, and preparation for mass production.

Start Your Project →
01 Do I Need a 3D Model to Make a Prototype? +

A complete 3D model is not always required, but it is the most direct starting point for prototype evaluation. STL, OBJ, STEP, or other 3D files can be used to determine the appropriate prototyping method. If only 2D drawings, reference images, or concept designs are available, additional 3D modeling may be required before prototyping.

02 Is Prototype Making the Same as 3D Printing? +

No. 3D printing is only one prototyping method. Depending on the product, prototypes may also be made using CNC machining, resin casting, hand-made prototyping, prototype tooling, or functional prototyping. The appropriate method depends on what needs to be verified before production.

03 Can the Prototype Be Made Using the Final Production Material? +

It depends on the product and manufacturing process. Some prototypes can use the same or a similar material as the final product, while others require a dedicated prototype process or substitute material. If the prototype needs to verify material appearance, flexibility, transparency, surface finish, or other production characteristics, these requirements should be defined before prototyping.

04 Can I Modify the 3D Model After Seeing the Prototype? +

Yes. Prototype evaluation often identifies changes that were not obvious in the digital model. Common modifications include dimensions, proportions, part connections, wall thickness, assembly structure, surface details, and moving parts. If the changes affect the 3D model, the updated design should be reviewed before producing the next prototype.

05 How Many Prototype Samples Should I Make? +

There is no fixed quantity for every project. One prototype may be sufficient for checking basic appearance, size, and structure. Multiple prototypes may be useful when the project requires assembly testing, different materials or colors, functional testing, packaging verification, or evaluation of multiple components.

06 Does Prototype Approval Mean the Product Is Ready for Mass Production? +

No. Prototype approval does not automatically mean the design is ready for tooling. Before mass production, the approved design should be reviewed for part separation, wall thickness, draft angles, material selection, assembly structure, and tooling feasibility. The design may need production-specific adjustments before tooling begins.

07 Does Prototype Making Require a Mold? +

Not always. 3D printing, CNC machining, and some hand-made prototypes can usually be produced without a production mold. Resin casting, certain soft vinyl prototypes, transparent resin effects, repeated identical samples, and process-specific testing may require prototype tooling such as a silicone mold. Prototype tooling is different from the tooling used for mass production.

08 Why Is My Prototype Quote Different From Another Product of the Same Size? +

The same product size does not necessarily mean the same prototype cost. Model complexity, prototype quantity, production method, material, surface treatment, assembly, model modifications, and prototype tooling can all affect the amount of work required.

09 How Long Does Prototype Making Take? +

Prototype lead time depends on the confirmed design, prototyping method, quantity, material, finishing, assembly, and required modifications. The schedule is normally determined after the design files and prototype specifications have been reviewed and confirmed.

10 What Information Should I Provide for a Prototype Quote? +

For an accurate prototype evaluation, provide the 3D model, product dimensions, prototype quantity, material requirements, surface finish, color requirements, assembly requirements, functional requirements, and relevant reference images. Complete design information makes it easier to determine the appropriate prototype method, cost, and lead time.

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MIHOX 2026 SPRING FESTIVAL

Year of the Horse • 丙午马年

Homecoming for the Heart | Galloping Towards a Warm Reunion

Dear Friends,

As the hoofbeats of the Year of the Horse draw near, the air is filled with the spirit of vitality and the warmth of tradition. In Chinese culture, the Spring Festival is our most sacred time—a moment to “gallop home,” no matter how far, to reunite with family for the New Year’s Eve feast and share the joy of togetherness.

Holiday Begins
February 7th, 2026
Back in Action
March 2nd, 2026

For any personalized requests, please leave a message. We promise to return with the vigor and speed of a galloping horse on March 2nd to handle all your needs.

Thank you for your incredible support throughout the year. May your Year of the Horse be filled with strength, success, and endless joy!

AWarmest regards,
The MIHOX Team 🐎🏮🧧

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Stella Yan

Founder Introduction

Stella Yan, the founder of Newmiho Cultural & Creative Co., Ltd., has 15 years of experience in the custom figurine and toy manufacturing industry. He/She specializes in providing one-stop solutions for global brands, designers, and IP owners.

He/She founded the company to solve common industry challenges—communication gaps, inconsistent prototypes, and the difficulty of producing small batches. His/Her goal is to build a fully transparent and controllable workflow covering design, prototyping, mold development, and mass production.

Under his/her leadership, the company has delivered 20000+ resin, vinyl, and plastic figure projects for clients across Europe and the United States, supported by a mature quality management system that ensures stable and reliable results.

His/Her vision is simple: to bring great characters and ideas to life through high-quality products recognized worldwide.

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