Unlock Design Freedom with Advanced 3D Printing

Produce complex, lightweight, and high-performance parts faster with industrial-grade additive manufacturing.

3D printed spiral vase with complex geometry and layered texture created using FDM additive manufacturing

Redefining Aesthetics through Precision 3D Printing

Create intricate, organic structures and visually striking designs with advanced 3D printing technologies. Ideal for concept models, design validation, and aesthetic prototypes that demand both precision and creativity.

Design Guidelines for 3D Printing Techniques

3D printing part sizes:

 

FDM200 x 200 x 200 mm for desktop printers, up to 900 x 600 x 900 mm for industrial printers
SLA145 x 145 x 175 mm for desktop printers, up to 1500 x 750 x 500 mm for industrial printers
DMLS/SLM250 x 150 x 150 mm, up to 500 x 280 x 360 mm
SLS300 x 300 x 300 mm, up to 750 x 550 x 550 mm
MJF380 x 285 x 380 mm

Supports in 3D printing

Supports are a type of structure of a part, that can help to prevent deformation and secure the part to the printing bed during the 3D printing process. Can you print without supports and when do you need that? Yes, you can 3D print without support. Take the FDM 3D printing as an example, when a feature is printed with an overhang of more than 45 degrees, it may sag enough to destroy the part, at this point you need a support structure. In another case, bridging allows parts to be printed without the use of support material and with minimal sag because hot materials can be stretched out. But if the bridge is longer than 5 mm and you need a good surface finish, a support structure is required. In addition, SLA and DLP 3D printers generally use supports.

Comprehensive Material & Color Options for 3D Printing

Choose from a wide range of engineering and standard materials, including PLA, ABS, Nylon, and TPU—available in multiple colors to meet both functional and aesthetic requirements. Ideal for rapid prototyping and custom production.

Multiple 3D printing filament spools in various colors representing a wide range of material options

Dimensional accuracy in 3D printing

The dimensional accuracy refers to how accurate the size and form of the printed part are compared to that in the CAD design. Factors that affect dimensional accuracy include material quality, equipment, post-processing, and more. Dimensional tolerance, shrinkage, and support requirements are three key elements to measuring dimensional accuracy. Below are the dimensional tolerance of different 3D processes.

 

FDM dimensional toleranceprototyping (desktop):±0.5% (lower limit:±0.5 mm), industrial:±0.15% (lower limit:±0.2 mm)
SLA dimensional toleranceprototyping (desktop):±0.5% (lower limit:±0.10 mm) industrial:±0.15% (lower limit:±0.01 mm)
SLS/MJF dimensional tolerance±0.3% (lower limit:±0.3 mm)

3D Printing Plastic Materials Guide

 

ABSTough, strong, durable, heat-resistant, cost-effective, flexible, reusable, not biodegradableCar bodies, appliances, and mobile phone cases
PLAEasy to work with, environmentally friendly, biodegradable, available in resin and filament with a variety of colorsFood packaging, biodegradable medical devices and implants
PVAWater-solubleOften use to create a support structure for portions of a product that may warp or collapse
PPAffordable, chemical resistant, flammable, and degrades with UV lightHousehold containers, lab equipment, and textiles
Nylon/PAStrong, lightweight, durable, heat and impact-resistant, but not resistant to strong acids and basesApplications that require high mechanical properties and functional prototypes
PEICan withstand high heatInjection mold tools and heat-resistant components
PCHeat resistant up to 135 °C, durable, impact and shatter resistant, moderately flexible, transparent, electrically non-conductivePrototype windows and other clear products
PMMA/AcrylicGood impact strength, comparable clarity, and UV absorption propertiesAutomobile headlights, commercial aquariums and other alternatives to glass
CPVCHigh heat distortion temperature, chemical inertness, dielectric, and flame and smoke propertiesChemical processing, power generation, semiconductor, wastewater treatment
PEEKWear-resistant, good weight-to-strength ratio, high thermomechanical propertiesMedical custom-made implants, devices, aerospace and automotive parts
PETGHigh impact resistance, excellent chemical and moisture resistanceCompliant mechanisms, water bottles, electronic enclosures
TPUFlexible, abrasion-resistant, resistant to impacts and many chemicalsSporting goods, aerospace and automotive
PETP/ErtalyteHigh dimensional stability, mechanical strength, low moisture absorption, physiologically inertThin films, containers for liquid drinks