Standard SLA Resin

General-purpose SLA printing material with excellent surface finish, high detail accuracy, and good dimensional stability. Widely used for cosmetic prototypes, concept models, and appearance validation.

Tensile Strength, Yield (MPa)

Elongation at Break (%)

Hardness (Shore D)

Heat Deflection Temperature (°C)

45–65

6–15

80–88

50–80

Durable SLA material with improved impact resistance and toughness for functional prototypes and engineering applications.

Tensile Strength, Yield (MPa)

Elongation at Break (%)

Hardness (Shore D)

Heat Deflection Temperature (°C)

40–60

20–50

75–85

45–70

Transparent SLA material designed for optical prototypes, transparent housings, and appearance models requiring high clarity.

General Transparent SLA Resin Properties

Tensile Strength, Yield (MPa)

Elongation at Break (%)

Hardness (Shore D)

Heat Deflection Temperature (°C)

50–65

5–12

82–88

45–70

Engineering-grade SLA material designed for thermal testing and high-temperature prototype applications.

Tensile Strength, Yield (MPa)

Elongation at Break (%)

Hardness (Shore D)

Heat Deflection Temperature (°C)

55–75

3–8

85–92

120–250

General-purpose SLS nylon material with excellent strength, durability, and dimensional stability for functional prototypes and engineering parts.

 

Tensile Strength, Yield (MPa)

Elongation at Break (%)

Hardness (Shore D)

Heat Deflection Temperature (°C)

45–55

15–25

75–82

90–120

Reinforced SLS nylon material with improved stiffness, heat resistance, and dimensional stability for industrial applications.

Tensile Strength, Yield (MPa)

Elongation at Break (%)

Hardness (Shore D)

Heat Deflection Temperature (°C)

50–70

3–8

80–88

140–180

Flexible SLS material with good elasticity and impact resistance for wearable products and soft-touch engineering applications.

Tensile Strength, Yield (MPa)

Elongation at Break (%)

Hardness (Shore A)

Heat Deflection Temperature (°C)

6–15

80–250

70–90A

50–80

What is the advantage of working with UForProto? 

We offer affordable prices, no minimum order quantity, and transparent, city-controlled quality management throughout the entire process.

The cost of a 3D printed enclosure depends on factors such as part size, material selection, printing technology, surface finishing, complexity, and quantity.

Stereolithography builds highly-accurate parts ideal for prototypes and large concept models.

Selective Laser Sintering creates tough and geometrically complex components in a wide variety of applications with multiple Nylon materials to choose from.

3D printing is better for rapid concept validation and complex structures, while vacuum casting is ideal for cosmetic prototypes and low-volume production with production-like quality.

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