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We Keep Top Notch Plastic Materials

Many of our materials are also available in fiber-reinforced options, such as carbon fiber or glass fiber blends, offering increased strength, stiffness, and performance for demanding applications.

PETG

Clear Plastic Material

⚙️ Mechanical Properties
 

  • Tensile Strength: ~50 MPa

  • Impact Resistance: High (more flexible than PLA)

  • Flexibility: Moderate (less brittle than PLA)

  • Layer Adhesion: Excellent

  • Wear Resistance: Good



🌡️ Thermal Properties
 

  • Glass Transition Temperature: ~80°C (176°F)

  • Heat Resistance: Moderate

  • Printing Temp: 220–250°C

  • Bed Temp: 70–90°C



🧴 Chemical & Environmental Resistance
 

  • Moisture Resistance: Good

  • Chemical Resistance: Strong against acids, alcohols, and oils

  • UV Resistance: Moderate (better than PLA, less than ASA)

  • Food Safe: Potentially (if printed and handled correctly)


⚡ Key Advantages
 

  • Strong and durable for functional parts

  • Excellent layer bonding (less prone to cracking)

  • Low warping compared to ABS

  • Slight flexibility reduces brittleness

  • Smooth, often glossy surface finish



⚠️ Limitations
 

  • Not as heat-resistant as ABS or Nylon

  • Can string during printing if not dialed in

  • Softer surface can scratch more easily



🏭 Common Use Cases
 

  • Mechanical parts and housings

  • Industrial components

  • Protective covers and enclosures

  • Liquid containers and tubing parts

  • Outdoor applications (moderate exposure)

PLA

Colorful Plastic Material

⚙️ Mechanical Properties

 

  • Tensile Strength: ~60 MPa

  • Impact Resistance: Low to moderate (can be brittle)

  • Flexibility: Low (stiff material)

  • Layer Adhesion: Good

  • Wear Resistance: Moderate



🌡️ Thermal Properties
 

  • Glass Transition Temperature: ~60°C (140°F)

  • Heat Resistance: Low (can deform under heat)

  • Printing Temp: 190–220°C

  • Bed Temp: 50–70°C (optional)



🧴 Chemical & Environmental Resistance
 

  • Moisture Resistance: Moderate

  • Chemical Resistance: Limited

  • UV Resistance: Poor (degrades over time outdoors)

  • Food Safe: Potentially (if printed and handled correctly)



⚡ Key Advantages

  • Very easy to print and beginner-friendly

  • Excellent surface finish and detail

  • Minimal warping

  • Wide range of colors and finishes

  • Plant-based and more environmentally friendly



⚠️ Limitations
 

  • Brittle compared to other materials

  • Low heat resistance

  • Not ideal for functional or load-bearing parts

  • Degrades with prolonged UV exposure



🏭 Common Use Cases
 

  • Prototypes and concept models

  • Display parts and visual pieces

  • Low-stress components

  • Educational and hobby prints

  • Decorative items

ASA

ASA Plastic Material

⚙️ Mechanical Properties
 

  • Tensile Strength: ~45–50 MPa

  • Impact Resistance: High

  • Flexibility: Moderate

  • Layer Adhesion: Good (best in enclosed printers)

  • Wear Resistance: Good



🌡️ Thermal Properties

 

  • Glass Transition Temperature: ~100°C (212°F)

  • Heat Resistance: High

  • Printing Temp: 240–260°C

  • Bed Temp: 90–110°C



🧴 Chemical & Environmental Resistance
 

  • Moisture Resistance: Good

  • Chemical Resistance: Good (resists oils, greases, and some solvents)

  • UV Resistance: Excellent (won’t yellow or degrade easily)

  • Weather Resistance: Outstanding for outdoor use



⚡ Key Advantages

  • Superior UV and weather resistance

  • Strong and impact-resistant

  • Better outdoor durability than ABS

  • Smooth, professional surface finish

  • Ideal for long-term exterior applications



⚠️ Limitations
 

  • Requires controlled printing environment (enclosure recommended)

  • Can warp if not printed properly

  • Emits fumes during printing (ventilation needed)

  • Slightly more difficult to print than PLA or PETG



🏭 Common Use Cases
 

  • Outdoor components and housings

  • Automotive parts and trim

  • Electrical enclosures

  • Industrial equipment parts

  • Signage and exterior fixtures

ABS

ABS Plastic Material Black

⚙️ Mechanical Properties
 

  • Tensile Strength: ~40–50 MPa

  • Impact Resistance: High

  • Flexibility: Moderate

  • Layer Adhesion: Moderate to good

  • Wear Resistance: Good



🌡️ Thermal Properties
 

  • Glass Transition Temperature: ~105°C (221°F)

  • Heat Resistance: High

  • Printing Temp: 220–250°C

  • Bed Temp: 90–110°C



🧴 Chemical & Environmental Resistance
 

  • Moisture Resistance: Good

  • Chemical Resistance: Moderate (resists acids and alkalis, limited solvent resistance)

  • UV Resistance: Poor (can degrade in sunlight)

  • Weather Resistance: Moderate (better indoors or protected use)


⚡ Key Advantages
 

  • Strong and impact-resistant

  • Good heat tolerance for functional parts

  • Can be sanded, machined, and acetone-smoothed

  • Widely used and cost-effective

  • Suitable for mechanical and industrial use



⚠️ Limitations
 

  • Prone to warping without proper settings

  • Requires heated bed and often an enclosure

  • Emits fumes during printing (ventilation recommended)

  • Not ideal for long-term outdoor exposure



🏭 Common Use Cases
 

  • Functional prototypes

  • Mechanical components

  • Enclosures and housings

  • Automotive interior parts

  • Tools, fixtures, and jigs

NYLON

Nylon Plastic Material Colorful

⚙️ Mechanical Properties
 

  • Tensile Strength: ~60–75 MPa

  • Impact Resistance: Very high

  • Flexibility: High (tough, not brittle)

  • Layer Adhesion: Excellent

  • Wear Resistance:  (excellent for moving parts)



🌡️ Thermal Properties
 

  • Glass Transition Temperature: ~70°C (158°F)

  • Heat Resistance: High (varies by type)

  • Printing Temp: 240–270°C

  • Bed Temp: 70–100°C



🧴 Chemical & Environmental Resistance
 

  • Moisture Resistance: Low (absorbs moisture from air)

  • Chemical Resistance: Excellent (resists oils, fuels, and many chemicals)

  • UV Resistance: Moderate

  • Weather Resistance: Good with proper treatment


⚡ Key Advantages
 

  • Extremely strong and durable

  • Excellent for moving and load-bearing parts

  • High wear and abrasion resistance

  • Good chemical resistance

  • Slight flexibility prevents cracking



⚠️ Limitations
 

  • Absorbs moisture (requires dry storage and printing)

  • More difficult to print than PLA or PETG

  • Can warp without proper settings

  • Surface finish is less smooth than other materials



🏭 Common Use Cases
 

  • Gears and mechanical components

  • Bearings and bushings

  • Industrial machine parts

  • Snap-fit components

  • Functional prototypes and end-use parts

TPU

Blue TPU Plastic Material

⚙️ Mechanical Properties
 

  • Tensile Strength: ~30–50 MPa

  • Impact Resistance: Very high

  • Flexibility: Very high (rubber-like)

  • Elasticity: Excellent (can stretch and return to shape)

  • Wear Resistance: Excellent



🌡️ Thermal Properties
 

  • Glass Transition Temperature: ~-30°C (-22°F)

  • Heat Resistance: Moderate

  • Printing Temp: 210–240°C

  • Bed Temp: 40–60°C



🧴 Chemical & Environmental Resistance
 

  • Moisture Resistance: Good

  • Chemical Resistance: Good (resists oils, grease, and abrasion)

  • UV Resistance: Moderate

  • Weather Resistance: Good


⚡ Key Advantages
 

  • Extremely flexible and elastic

  • High impact and abrasion resistance

  • Durable under repeated stress

  • Excellent for shock absorption

  • Resistant to oils and grease



⚠️ Limitations
 

  • Slower and more difficult to print

  • Can string or deform if not dialed in

  • Not as rigid or load-bearing as other materials

  • Requires proper printer setup (direct drive preferred)



🏭 Common Use Cases
 

  • Gaskets and seals

  • Phone cases and protective covers

  • Flexible joints and hinges

  • Vibration dampening parts

  • Wear-resistant components

PAHT-CF

PAHT Black Plastic Part

⚙️ Mechanical Properties
 

  • Tensile Strength: ~90–110 MPa

  • Impact Resistance: High

  • Flexibility: Low to moderate (very stiff due to carbon fiber)

  • Layer Adhesion: Excellent

  • Wear Resistance: Excellent



🌡️ Thermal Properties
 

  • Heat Deflection Temperature: ~150–200°C (varies by blend)

  • Heat Resistance: Very high

  • Printing Temp: 260–300°C

  • Bed Temp: 90–120°C



🧴 Chemical & Environmental Resistance
 

  • Moisture Resistance: Better than standard nylon (reduced absorption)

  • Chemical Resistance: Excellent (resists oils, fuels, and solvents)

  • UV Resistance: Good

  • Weather Resistance: Very good for demanding environments


⚡ Key Advantages
 

  • Extremely high strength-to-weight ratio

  • Very stiff with minimal flex

  • Excellent heat resistance

  • Superior dimensional stability

  • Reduced warping compared to standard nylon

  • Ideal for replacing metal in some applications



⚠️ Limitations
 

  • More brittle than standard nylon

  • Higher material cost

  • Requires high-temp, professional-grade printers

  • Abrasive (requires hardened nozzles)



🏭 Common Use Cases
 

  • Structural and load-bearing components

  • Industrial machine parts

  • Automotive and motorsport components

  • Jigs, fixtures, and tooling

  • Lightweight replacement for metal parts
     

Frequently Asked Questions

PLA FAQs

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What is PLA best used for?
PLA is best for prototypes, visual models, and low-stress parts where detail and finish matter.

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Is PLA strong enough for functional parts?
PLA has good strength but is brittle, making it better for light-duty rather than load-bearing applications.

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Can PLA be used outdoors?
PLA is not ideal for outdoor use because it degrades with UV exposure and heat.

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Does PLA require a heated bed?
A heated bed is optional, but it can improve adhesion and print quality.

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Is PLA environmentally friendly?
PLA is plant-based and biodegradable under industrial conditions, making it more eco-friendly than most plastics.

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PETG FAQs

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What is PETG best used for?
PETG is great for functional parts that need strength, durability, and some flexibility.

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Is PETG stronger than PLA?
Yes, PETG is more impact-resistant and less brittle than PLA, making it better for real-world use.

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Is PETG waterproof?
PETG has good moisture resistance and is suitable for parts exposed to water or humidity.

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Can PETG be used outdoors?
Yes, PETG performs moderately well outdoors with better UV resistance than PLA.

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Does PETG warp during printing?
PETG has low warping compared to ABS, making it easier to print large parts.

​

ABS FAQs

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What is ABS best used for?
ABS is ideal for durable, impact-resistant parts and functional prototypes.

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Is ABS heat resistant?
Yes, ABS handles higher temperatures than PLA and PETG, making it suitable for more demanding environments.

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Can ABS be used outdoors?
ABS is not ideal for long-term outdoor use because it degrades under UV exposure.

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Does ABS require special printing conditions?
Yes, ABS typically requires a heated bed and enclosure to prevent warping.

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Can ABS be post-processed?
Yes, ABS can be sanded, machined, and smoothed with acetone for a polished finish.

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ASA FAQs

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What is ASA best used for?
ASA is best for outdoor applications where UV and weather resistance are critical.

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Is ASA better than ABS?
ASA is similar to ABS but offers significantly better UV and weather resistance.

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Does ASA fade in sunlight?
No, ASA is designed to resist fading, yellowing, and degradation from UV exposure.

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Is ASA difficult to print?
ASA can be more challenging to print and typically requires an enclosure for best results.

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What industries commonly use ASA?
ASA is commonly used in automotive, outdoor equipment, and industrial applications.

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Nylon FAQs

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What is Nylon 3D printing material best used for?
Nylon is ideal for strong, flexible, and wear-resistant parts like gears and mechanical components.

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Is Nylon stronger than other materials?
Nylon is one of the strongest and most durable 3D printing materials, especially for functional parts.

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Does Nylon absorb moisture?
Yes, Nylon absorbs moisture from the air, so it must be stored and printed in dry conditions.

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Is Nylon flexible or rigid?
Nylon offers a balance of strength and flexibility, making it tough without being brittle.

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Is Nylon suitable for industrial use?
Yes, Nylon is widely used in industrial applications due to its durability and wear resistance.

​​

TPU FAQs

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What is TPU best used for?
TPU is ideal for flexible, rubber-like parts such as gaskets, seals, protective covers, and vibration-dampening components.

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How flexible is TPU?
TPU is highly flexible and elastic, allowing it to bend, stretch, and return to its original shape without breaking.

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Is TPU durable?
Yes, TPU is very durable with excellent resistance to abrasion, impact, and repeated stress.

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Can TPU be used outdoors?
TPU has good weather resistance and can be used outdoors, though long-term UV exposure may affect performance over time.

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Is TPU difficult to print?
TPU can be more challenging to print than rigid materials and typically requires slower speeds and proper printer setup.

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PAHT-CF FAQs

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What is PAHT-CF best used for?
PAHT-CF is ideal for high-strength, load-bearing parts and applications that require stiffness and heat resistance.

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Is PAHT-CF stronger than standard nylon?
Yes, PAHT-CF is significantly stronger and stiffer due to carbon fiber reinforcement.

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Can PAHT-CF replace metal parts?
In some applications, PAHT-CF can serve as a lightweight alternative to metal while maintaining high strength.

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Is PAHT-CF heat resistant?
Yes, PAHT-CF offers excellent heat resistance, making it suitable for high-temperature environments.

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Is PAHT-CF difficult to print?
Yes, it requires high-temperature printers and hardened nozzles due to its abrasive carbon fiber content.

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