Rapid prototyping with RapidDirect

Fast CNC machining, injection molding, sheet metal manufacturing, 3D printing and vacuum casting services. Delivery time is up to 1 day.

What is rapid prototyping

 Rapid prototyping means making a physical sample of a new product design idea. This is done as a preliminary step towards eventual production, and is most useful when verifying that the finished product will look, feel, and perform as intended. New product developers turn to rapid prototyping for several reasons. They’re used for functional testing, approvals, design iterations, for crowdfunding campaigns, trade show models, and as a bridge to low-volume manufacturing.

Prototypes often inspire re-designs, improvements, and other modifications that may not have been obvious merely from a computer graphic, so in this regard they’re beneficial for optimizing a design before committing resources to larger volumes. In fact, being able to correct design errors early in the development phase can more than compensate for the cost of the prototype itself, so they’re wise investments.

What Are The Different Types Of Rapid Prototyping?

Any physical model can potentially be a prototype. The difference lies in how closely it reflects the intended finished part.

Very simple models can be made with paper, plastic, modeling clay, styrofoam, balsa wood, or other common household materials. These are examples of very low-fidelity prototypes, but they do have the advantage of being easy and inexpensive to make.

These types of prototypes would likely not function very well or for long, so they’re used primarily to get a visual idea of the design and to compare it in scale to other parts.

More high-fidelity prototypes use modern machine tools and materials, including various 3D printing technologies, vacuum casting, rapid tooling for injection molding, and CNC machining.

Prototypes often inspire re-designs, improvements, and other modifications that may not have been obvious merely from a computer graphic, so in this regard they’re beneficial for optimizing a design before committing resources to larger volumes. In fact, being able to correct design errors early in the development phase can more than compensate for the cost of the prototype itself, so they’re wise investments.

How To Choose The Right Rapid Prototyping Technique

The right prototyping method is the one that best fits your budget, the complexity of the part, what you want the prototype to do, and your development timeline. Better prototypes cost more money and take longer to make, but they also more faithfully represent the form, fit, and function of a production part.

The basic questions to ask are these:

  • Will the prototype be a static display model?
  • Does it need to be fully functional?
  • Are there multiple, interconnected parts?
  • What is the surface texture and finish?
  • What is it made from?
  • How important is strength and durability?
  • How closely should it match the final production version?

There are many variables to consider and we cannot cover them all here.

 WHY CHOOSE US 

We recommend you contact our experts who can advise you on the method that is best for your application.

Advantages of Rapid Prototyping

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Physical Model
Show your customers and investors a physical model of your product
Show Features
Demonstrate the appearance, dimensions, and features of your product
Test The Market
Test the market with your product before production
Streamline Production
Improve and streamline the production process
Multiple Versions
Create multiple versions with different colors, surface textures, and finishing processes
CNC Machining
Vacuum Casting
Rapid Tooling
How Does Rapid Prototyping Work?

How to Choose
Correct rapid prototyping technology

Why Choose

Fast numerical control machining
High precision, suitable for a variety of materials. It is an ideal choice for the production of functional and durable parts.
Rapid injection molding
Ideal for mass production. Provide end-use functional parts with fine details.
Fast sheet metal manufacturing
Suitable for making durable prototypes that can be quickly modified. Suitable for prototyping and production.
Rapid 3D printing
Fast and cost-effective. Capable of achieving complex geometries that cannot be achieved by other methods.
Rapid vacuum casting
Suitable for rapid and economical production of a small number of highly detailed reproductions.

Disadvantages

Fast numerical control machining
Higher costs and longer lead times compared to some additive manufacturing processes.
Rapid injection molding
The upfront cost of the mold is high and the economy is poor for small batch production.
Fast sheet metal manufacturing
Material properties may not match those of traditionally manufactured parts. The resolution varies from technology to technology.
Rapid 3D printing
Material properties may not match those of traditionally manufactured parts. The resolution varies from technology to technology.
Rapid vacuum casting
Often used for non-functional prototypes or visual models due to material properties.

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Rapid prototyping with RapidDirect
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What Is Rapid Prototyping?

Rapid prototyping means making a physical sample of a new product design idea. This is done as a preliminary step towards eventual production, and is most useful when verifying that the finished product will look, feel, and perform as intended. New product developers turn to rapid prototyping for several reasons. They’re used for functional testing, approvals, design iterations, for crowdfunding campaigns, trade show models, and as a bridge to low-volume manufacturing.

Prototypes often inspire re-designs, improvements, and other modifications that may not have been obvious merely from a computer graphic, so in this regard they’re beneficial for optimizing a design before committing resources to larger volumes. In fact, being able to correct design errors early in the development phase can more than compensate for the cost of the prototype itself, so they’re wise investments.

What Are The Different Types Of Rapid Prototyping?

Any physical model can potentially be a prototype. The difference lies in how closely it reflects the intended finished part.

Very simple models can be made with paper, plastic, modeling clay, styrofoam, balsa wood, or other common household materials. These are examples of very low-fidelity prototypes, but they do have the advantage of being easy and inexpensive to make.

These types of prototypes would likely not function very well or for long, so they’re used primarily to get a visual idea of the design and to compare it in scale to other parts.

More high-fidelity prototypes use modern machine tools and materials, including various 3D printing technologies, vacuum casting, rapid tooling for injection molding, and CNC machining.

Prototypes often inspire re-designs, improvements, and other modifications that may not have been obvious merely from a computer graphic, so in this regard they’re beneficial for optimizing a design before committing resources to larger volumes. In fact, being able to correct design errors early in the development phase can more than compensate for the cost of the prototype itself, so they’re wise investments.

How To Choose The Right Rapid Prototyping Technique

The right prototyping method is the one that best fits your budget, the complexity of the part, what you want the prototype to do, and your development timeline. Better prototypes cost more money and take longer to make, but they also more faithfully represent the form, fit, and function of a production part.

The basic questions to ask are these:

  • Will the prototype be a static display model?
  • Does it need to be fully functional?
  • Are there multiple, interconnected parts?
  • What is the surface texture and finish?
  • What is it made from?
  • How important is strength and durability?
  • How closely should it match the final production version?

There are many variables to consider and we cannot cover them all here.