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Unlocking Efficiency: The Power of Rapid Prototyping

This article explores the key aspects of rapid prototyping, a crucial step in the product development process that offers significant benefits. 

What is Rapid Prototyping?

Rapid prototyping is a game-changing method in manufacturing that enables the fast production of physical parts, models, or assemblies directly from 3D Computer-Aided Design (CAD). This cutting-edge process primarily uses additive manufacturing, widely recognized as 3D printing , to build prototypes layer by layer.

The core advantage of rapid prototyping is its ability to convert digital designs into physical prototypes quickly. These prototypes can vary in detail:

  • High-fidelity prototypes closely replicate the final product, making them ideal for testing functionality and appearance.
  • Low-fidelity prototypes are simpler and used for early-stage concept validation, helping teams assess basic design ideas before committing to costly production.

Although additive manufacturing is the most popular technique, rapid prototyping encompasses a variety of other manufacturing methods. Traditional approaches like high-speed machining, casting, molding, and extruding are also used, depending on the project’s needs.

Here’s a breakdown of these methods:

  • Subtractive techniques: These involve cutting away material using tools like milling machines, grinders, or lathes to shape the prototype.
  • Compressive techniques: These involve shaping materials by compressing semi-solid or liquid substances into molds before they solidify. Examples include casting and compressive sintering.

This broad range of methods highlights the versatility of rapid prototyping, making it adaptable to various designs and materials. Its flexibility allows manufacturers to experiment, refine, and perfect their products efficiently, saving both time and resources.

By combining speed, precision, and adaptability, rapid prototyping is transforming product development across industries—from automotive to healthcare—paving the way for faster innovation.

The Importance of Rapid Prototyping in Product Development

In today’s fast-paced market, staying competitive is essential. One powerful way to achieve this is by integrating rapid prototyping into your product development process. Rapid prototyping doesn’t just accelerate the design cycle—it also promotes a more flexible and agile development approach. By quickly producing prototypes at different stages, from initial concepts to visual models and fully functional versions, teams can spot and fix design flaws early. This proactive method reduces costly revisions later and streamlines the journey to creating a high-quality final product.

Benefits of Rapid Prototyping in Product Development

  • Accelerated Product Development

    Rapid prototyping speeds up the iteration process, shortening development cycles and reducing time-to-market. In today’s competitive environment, this quick turnaround is critical for maintaining a competitive edge by swiftly moving from concept to product.

  • Cost Savings
    By detecting design flaws and functional issues early, prototyping minimizes expensive revisions during later production phases. This early problem-solving reduces overall development costs.
  • Enhanced Creativity
    The iterative nature of rapid prototyping fosters experimentation and innovation. Designers can quickly test and refine concepts, leading to more innovative solutions and an adaptive product development process.
  • Real-Time Feedback
    Prototypes can be tested with actual users, providing immediate feedback. This direct user input allows for informed design adjustments, ensuring the final product aligns with user preferences and needs.
  • Customization and Personalization
    Rapid prototyping facilitates the development of tailored solutions, allowing companies to meet specific user requirements. This ability to create personalized products enhances customer satisfaction and loyalty.
  • Risk Mitigation
    Early testing and validation reduce the likelihood of product failure. By refining concepts at the initial stages, companies can ensure that the final product meets customer expectations and market demands, significantly lowering the risk of a misaligned or unsuccessful product launch.

3D Printing FDM , 3D Printing service Singapore , 3D Printing service KL, 3D Printing SLA, 3D Scanning Malaysia

Low-Fidelity vs. High-Fidelity Prototypes: How to Choose the Right Approach

When developing a product, it’s important to choose the right type of prototype for your design stage. Let’s break down the two main types: low-fidelity and high-fidelity prototypes.

What Are Low-Fidelity Prototypes?

Low-fidelity prototypes are simple, early-stage representations of a product concept. They are often quick and inexpensive to create, using basic materials like paper sketches, wireframes, or cardboard models. These prototypes focus on testing broad ideas rather than specific details, making them perfect for gathering initial user feedback and refining the overall vision of a product. Their goal is to validate core concepts, allowing teams to quickly identify potential issues and make changes before investing too much time or money.

What Are High-Fidelity Prototypes?

High-fidelity prototypes are more advanced and closely resemble the final product in terms of design, functionality, and user experience. They often include detailed visuals, interactive features, and realistic user interfaces. Because of their polished nature, high-fidelity prototypes are used for more in-depth testing, including usability studies and stakeholder presentations. These prototypes allow teams to identify and address specific design flaws and functionality issues before full-scale production.

When to Use Each Prototype

  • Low-Fidelity Prototypes are ideal in the early stages of design, where quick iterations and broad feedback are essential. They’re best for brainstorming sessions, early user testing, and concept validation.
  • High-Fidelity Prototypes are most useful in the later stages, where precise details and a near-final user experience are needed. They help stakeholders visualize the product and enable teams to refine the design based on detailed user feedback.


By choosing the right prototype at the right stage, you can streamline your design process, improve collaboration, and create a product that meets both user needs and business goals.

Collaborate with 3D printing bureau to choose the best material and optimize build orientation for your project’s needs.Explore our 3D Printing Materials Guide to learn about various plastic and metal materials across technologies.

Discover more at projet.my. For assistance, reach out to our applications engineer at [email protected] or +604-2858 335.

HIPS

HIPS is a multifunctional material. It shares many mechanical properties with ABS plastic, but as the name suggests, it has a much higher resistance to impact. This added strength makes HIPS an excellent choice for creating durable 3D-printed parts that can withstand everyday wear and tear.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.04
  • Tensile Strength(MPa): 40
  • Flex Modulus(MPa): 1600
  • Elongation(%): 18
  • Heat Distortion Temp(°C): 80
  • Hardness Shore D: –

PMMA-Like Resin

PMMA Like clear resin has high transparency and anti-yellowing, suitable for high transparency applications in non-high temperature environments. The transparent resin has imitation acrylic, glass appearance.

Suitable for: SLA

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.05
  • Tensile Strength(MPa): 40
  • Flex Modulus(MPa): 40
  • Elongation(%): 32
  • Heat Distortion Temp(°C): –
  • Hardness Shore D: 78

Nylon12 Glass Fibre40 Blue-gray

This grey-blue composite nylon powder, enhanced with 40% glass beads, creates 3D-printed parts with exceptional stiffness and heat resistance. Powder reuse rate can reach up to 100%.

Suitable for: SLS

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 0.72
  • Tensile Strength(MPa): 46
  • Flex Modulus(MPa): 2,800
  • Elongation(%): –
  • Heat Distortion Temp(°C): 160
  • Hardness Shore D: –

Nylon 12 Glass Fibre 30

PA12GB30 is a high-performance material with excellent chemical, mechanical, and thermal properties, ideal for engineering applications. Compared to PA6, it absorbs significantly less moisture, preserving strength and shape in humid environments. With added glass fiber reinforcement, it offers enhanced durability, stiffness, and stability, making it a reliable choice for demanding conditions.

Suitable for: SLS

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.25
  • Tensile Strength(MPa): 62.6
  • Flex Modulus(MPa): 2,340
  • Elongation(%): 6.8
  • Heat Distortion Temp(°C): 160
  • Hardness Shore D: –

Rubber-Like Resin

Rubber-like resin has a low tensile modulus and high elongation at break, making it well-suited for objects that will be bent or compressed.

Suitable for: SLA

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): –
  • Tensile Strength(MPa): 7.9
  • Flex Modulus(MPa): –
  • Elongation(%): 255.1
  • Heat Distortion Temp(°C): –
  • Hardness Shore D: 60-75

ABS-Like Resin

ABS-like resin excels in high precision, providing a smooth surface quality with exquisite detail features. Known for its superior forming dimensional stability, this resin is ideal for the assembly and testing of various engineering models. Achieving a perfect balance between tensile strength and hardness, it prevents brittleness with its high elongation at break, ensuring resistance to breaking.

Suitable for: SLA

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.05-1.13
  • Tensile Strength(MPa): 42-62
  • Flex Modulus(MPa): 60-80
  • Elongation(%): 11-21
  • Heat Distortion Temp(°C): –
  • Hardness Shore D: 75-80

Nylon-Like Resin

Nylon-like resin is a high-strength material known for its excellent durability and long-term stability. It also boasts exceptional toughness and impact resistance.

Suitable for: SLA

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.05-1.15
  • Tensile Strength(MPa): 68
  • Flex Modulus(MPa): 35
  • Elongation(%): 15
  • Heat Distortion Temp(°C): –
  • Hardness Shore D: 75

Hard-Tough Resin

This hard resin boasts higher toughness and impact resistance compared to standard ABS-like resin, making it exceptionally well-suited for mechanical prototypes.

Suitable for: SLA

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.08-1.12
  • Tensile Strength(MPa): 30-60
  • Flex Modulus(MPa): 30-75
  • Elongation(%): 35-52
  • Heat Distortion Temp(°C): 60
  • Hardness Shore D: 75-81

High Temp. Resin

High Temp Resin is characterized by high hardness, strength, modulus, and precision. It exhibits resistance to prolonged heating at 120°C or boiling at 100°C, showcasing excellent mechanical properties, weather resistance, and temperature resistance.

Suitable for: SLA

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: NO

Material Property

  • Density(g/cm3): 1.09-1.10
  • Tensile Strength(MPa): 70-85
  • Flex Modulus(MPa): 95-105
  • Elongation(%): 35-40
  • Heat Distortion Temp(°C): 100.5
  • Hardness Shore D: 82-84

General Resin

General resin, known for its high rigidity, proves to be a versatile material ideal for both functional testing and rapid prototype.

Suitable for: SLA

Application

  • Prototype

Application Fields

  • Aerospace: NO
  • Automotive: YES
  • Industrial Machinery: NO
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: NO
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.08-1.13
  • Tensile Strength(MPa): 46-67
  • Flex Modulus(MPa): 46-72
  • Elongation(%): 28-36
  • Heat Distortion Temp(°C): –
  • Hardness Shore D: 78-82

Ultem1010 PEI (Polyetherimide)

PEI is a high-performance industrial-grade thermoplastic known for its strength, durability, and low flammability. This versatile material finds applications in various industries, including automotive, aerospace, medicine, and dentistry.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: NO
  • Automation: YES
  • Medical: NO
  • Education Community: NO

Material Property

  • Density(g/cm3): 1.27
  • Tensile Strength(MPa): 56
  • Flex Modulus(MPa): 2510
  • Elongation(%): 3
  • Heat Distortion Temp(°C): 208
  • Hardness Shore D: –

Ultem9085 PEI (Polyetherimide)

PEI is a high-performance industrial-grade thermoplastic known for its strength, durability, and low flammability. This versatile material finds applications in various industries, including automotive, aerospace, medicine, and dentistry.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: NO
  • Automation: YES
  • Medical: NO
  • Education Community: NO

Material Property

  • Density(g/cm3): 1.34
  • Tensile Strength(MPa): 54
  • Flex Modulus(MPa): 2170
  • Elongation(%): 3
  • Heat Distortion Temp(°C): 158
  • Hardness Shore D: –

PEEK (Polyether ether ketone)

PEEK (polyetheretherketone) is a high-performance semi-crystalline industrial thermoplastic known for its exceptional resistance to harsh chemicals, minimal moisture absorption, excellent fire performance, superior mechanical strength over a wide temperature range, and reliable dimensional stability.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.29
  • Tensile Strength(MPa): 100
  • Flex Modulus(MPa): 4200
  • Elongation(%): 40
  • Heat Distortion Temp(°C): 140
  • Hardness Shore D: –

PET-CF (Carbon fiber reinforced polyethylene terephthalate)

PET-CF emerges as a superior choice over nylon for printing functional parts in high-humidity environments. Its high-temperature resistance and minimal warping make it ideal for crafting mechanical assembly parts, including automotive accessories and fixtures. In comparison to PETG-CF, PET-CF contains a higher concentration of carbon fibre, resulting in significantly greater strength and high temperature resistance.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.29
  • Tensile Strength(MPa): 131
  • Flex Modulus(MPa): 5320
  • Elongation(%): 1.2
  • Heat Distortion Temp(°C): 205
  • Hardness Shore D: –

PAHT-CF (High temperature polyamide carbon fiber reinforced)

A composite of PA and carbon fibre, merges the low water absorption advantage of PA with the high-performance attributes of carbon fibre. This combination yields excellent mechanical and thermal properties that remain robust even in wet conditions. PA+CF is prized for its outstanding chemical resistance, low moisture absorption, and versatile processing capabilities.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.06
  • Tensile Strength(MPa): 125
  • Flex Modulus(MPa): 4230
  • Elongation(%): 1.8
  • Heat Distortion Temp(°C): 194
  • Hardness Shore D: –

PLA-CF (Carbon fiber reinforced polylactic acid)

Carbon fibber reinforced PLA, stands out for its remarkable increase in stiffness and strength. This cutting-edge bio-polymer, when combined with recycled carbon fibber reinforcement, results in a higher mechanical properties

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.22
  • Tensile Strength(MPa): 89
  • Flex Modulus(MPa): 3950
  • Elongation(%): 3.2
  • Heat Distortion Temp(°C): 55
  • Hardness Shore D: –

ESD-safe (Electrostatic discharge)

It exhibits excellent antistatic performance, making it particularly suitable for fields that require ESD protection.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.08-1.11
  • Tensile Strength(MPa): 35-37
  • Flex Modulus(MPa): 1300-1500
  • Elongation(%): 5-7
  • Heat Distortion Temp(°C): 98
  • Surface Resistance: 107 and 109 ohms Ω

UL 94-V0

It possesses higher mechanical properties and is halogen-free, environmentally friendly, and flame retardant, achieving a UL94V-0 level flame retardancy. This makes the product more fireproof and safer.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: NO
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.05
  • Tensile Strength(MPa): 45
  • Flex Modulus(MPa): 2400
  • Elongation(%): 30
  • Heat Distortion Temp(°C): 85
  • Hardness Shore D: –

ASA (Acrylonitrile styrene acrylate)

ASA shares excellent mechanical properties with ABS but offers additional benefits. It is more resistant to ultraviolet rays and harsh weather conditions, making it particularly suitable for outdoor use. ASA boasts strong toughness, rigidity, and high impact resistance.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: NO
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: NO
  • Education Community: YES

Material Property

  • Density(g/cm3): 1
  • Tensile Strength(MPa): 50
  • Flex Modulus(MPa): 4300
  • Elongation(%): 30
  • Heat Distortion Temp(°C): 88
  • Hardness Shore D: –

PP (Polypropylene)

Polypropylene (PP) is a popular material in 3D printing, valued for its versatility, strength, and chemical resistance. This lightweight and flexible plastic stands up well to acids, bases, and organic solvents, making it suitable for a range of applications. Additionally, PP is considered food-safe, though standard 3D printing food safety guidelines should still be followed.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.05
  • Tensile Strength(MPa): 21-26
  • Flex Modulus(MPa): 1200
  • Elongation(%): 30
  • Heat Distortion Temp(°C): 80
  • Hardness Shore D: –

PC (Polycarbonates)

PC is a high-performance material known for its toughness, heat resistance, dimensional stability, and high optical clarity. It exhibits excellent mechanical properties, high toughness, and impact resistance, making it stable and durable. Additionally, PC offers impressive temperature resistance, with a heat distortion temperature up to 80 ℃.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.21
  • Tensile Strength(MPa): 54
  • Flex Modulus(MPa): 1073
  • Elongation(%): 150
  • Heat Distortion Temp(°C): 80
  • Hardness Shore D: –

Nylon / PA (Polyamide)

Nylon is a versatile material known for its good flexibility, wear resistance, and high strength-to-weight ratio. PA12, in particular, exhibits high toughness and impact resistance.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.21
  • Tensile Strength(MPa): 50
  • Flex Modulus(MPa): 659
  • Elongation(%): 165
  • Heat Distortion Temp(°C): 100
  • Hardness Shore D: –

TPU (Thermoplastic polyurethane)

TPU material is renowned for its excellent flexibility, high elasticity, tear resistance, wear resistance, cut resistance, sturdiness, and durability.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: NO
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: NO
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.21
  • Tensile Strength(MPa): 35
  • Flex Modulus(MPa): –
  • Elongation(%): ≥800
  • Heat Distortion Temp(°C): –
  • Hardness Shore D: 95A

PETG (Polyethylene terephthalate glycol)

PETG is a robust material known for its odor neutrality and ease of printing. These characteristics, combined with high impact strength, flexibility, low shrinkage, water resistance, chemical resistance, and high toughness, make PETG an excellent choice for a variety of applications.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: NO
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: YES
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.27
  • Tensile Strength(MPa): 52
  • Flex Modulus(MPa): 1073
  • Elongation(%): 83
  • Heat Distortion Temp(°C): 64
  • Hardness Shore D: –

ABS (Acrylonitrile butadiene styrene)

ABS is a lightweight material known for its high impact resistance. These characteristics, coupled with a high heat deflection temperature, render ABS suitable for a wide range of applications and environments.

Suitable for: FDM

Application

  • Prototype
  • End-User part

Application Fields

  • Aerospace: YES
  • Automotive: YES
  • Industrial Machinery: YES
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: NO
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.06
  • Tensile Strength(MPa): 40
  • Flex Modulus(MPa): 1203
  • Elongation(%): 30
  • Heat Distortion Temp(°C): 73
  • Hardness Shore D: –

PLA (Polylactic acid)

PLA is an environmentally friendly biopolymer-based material that is both stiff and easy to print. It is available in a wide variety of colours.

Suitable for: FDM

Application

  • Prototype

Application Fields

  • Aerospace: NO
  • Automotive: YES
  • Industrial Machinery: NO
  • Consumer Electronics: YES
  • Automation: YES
  • Medical: NO
  • Education Community: YES

Material Property

  • Density(g/cm3): 1.23
  • Tensile Strength(MPa): 60
  • Flex Modulus(MPa): 1973
  • Elongation(%): 20
  • Heat Distortion Temp(°C): 53
  • Hardness Shore D: –