The right choice of material
Are you looking for a specific material?
Here you will find information about our 3D printing materials. Not sure which material is right for you or need a special material? Then get in touch with us, we will be happy to help you.
We are experts in SLS, SLA and FDM 3D printing
SLS Materials
SLS 3D printing (selective laser sintering) offers a high degree of design freedom and enables the production of complex, detailed geometries without additional support structures. This process can be used to produce robust and functional prototypes and end products from durable materials such as nylon and glass fiber-reinforced plastics. SLS is particularly suitable for products such as medical implants, functional prototypes, technical components and individual consumer goods. The technology enables fast production times and saves material, making it particularly cost-efficient.
(Polyamide 11)
- High toughness, good chemical resistance, bio-based
- Density: ~1.03 g/cm³
- Tensile strength: ~48 MPa
- Elongation at break: ~40%
- Modulus of elasticity: ~1,700 MPa
- Areas of application: Medical devices, flexible components, automotive components
(Electrostatic Discharge Polyamide 11)
- Properties: ESD-safe, durable, chemical-resistant, dissipative
- Density: ~1.05 g/cm³
- Tensile strength: ~45 MPa
- Surface resistance: 106 bis 109 Ω
- Elongation at break: ~30%
- Areas of application: Electronic housings, components for potentially explosive environments, sensitive electronics
(polyamide 12)
- Properties: High strength, low moisture absorption, high stability
- Density: ~1.01 g/cm³
- Tensile strength: ~50 MPa
- Elongation at break: ~20%
- Modulus of elasticity: ~1,800 MPa
- Areas of application: Functional prototypes, consumer products, automotive components
(Thermoplastic polyurethane)
- Properties: High flexibility, rubber-like, high tensile strength and elongation at break
- Density: ~1.21 g/cm³
Tensile strength: ~9 MPa - Elongation at break: ~300-400
- Hardness (Shore A): 88A
- Areas of application: Flexible components, seals, shock absorbers, shoe soles, sports and leisure articles
- Properties: Biodegradable, easy to print, low deformation, high level of detail
- Density: ~1.24 g/cm³
- Tensile strength: ~60 MPa
- Elongation at break: ~6%
- Printing temperature: 180-220°C
- Areas of application: Prototypes, model making, decorative items, simple consumer parts
- Properties: Flexible, high tensile strength and elasticity, abrasion-resistant, rubber-like
- Density: ~1.20 g/cm³
- Tensile strength: ~25 MPa
- Elongation at break: ~300-600
- Hardness (Shore A): 85-95A
- Pressure temperature: 220-250°C
- Areas of application: Flexible components, shock absorbers, seals, protective covers, shoes
- Properties: High strength, good impact strength, resistant to heat and chemicals
- Density: ~1.04 g/cm³
- Tensile strength: ~40 MPa
- Elongation at break: ~10-30%
- Printing temperature: 230-260°C (requires heated printing bed)
- Areas of application: Functional prototypes, housings, automotive components, electronic housings
- Properties: High impact resistance, UV and weather resistant, moisture resistant
- Density: ~1.27 g/cm³
- Tensile strength: ~50 MPa
- Elongation at break: ~20-25%
- Pressure temperature: 220-250°C
- Areas of application: Functional prototypes, household items, containers, medical applications, outdoor articles
FDM Materials
FDM 3D printing (Fused Deposition Modeling) is a cost-effective and user-friendly technology that is ideal for quick prototypes and simple functional models. With FDM, parts can be manufactured from various thermoplastic materials such as PLA, ABS or PETG, which enables a wide range of applications. Typical products include housings, tools, functional prototypes and simple spare parts. FDM is characterized by low material costs and easy handling and is ideal for single pieces and small series.
DLP Materials
DLP 3D printing (Digital Light Processing) offers a high level of detail and smooth surfaces, making it particularly suitable for finely structured and intricate parts. This method is ideal for small, precise components such as jewelry, dental models, medical devices and detailed models in model making. DLP delivers fast production times and is ideal for applications where precision and surface quality are critical.
- Properties: High strength and rigidity, good surface quality, similar to injection-molded ABS
- Density: ~1.12 g/cm³
- Tensile strength: ~50-60 MPa
- Elongation at break: ~6-10%
- Heat deflection temperature: ~58-65°C
- Areas of application: Functional prototypes, housings, mechanical parts, durable components
- Properties: High heat resistance, resistant to deformation under the influence of heat, strong and durable
- Density: ~1.14 g/cm³
- Tensile strength: ~55-65 MPa
- Elongation at break: ~4-6%
- Heat resistance: ~80-120°C (depending on post-curing)
- Areas of application: Functional components in warm environments, automotive applications, toolmaking, housings for electronic components
- Properties: High transparency, strong and tough, similar to ABS, good surface quality and optical clarity
- Density: ~1.13 g/cm³
- Tensile strength: ~40-55 MPa
- Elongation at break: ~5-8%
- Heat deflection temperature: ~50-60°C
- Applications: Optical components, transparent prototypes, housings for lighting, medical and aesthetic applications
DO YOU HAVE A QUESTION?
Materials FAQ
Here you will find answers to the right choice of material
We will find the right material for you. Get in touch with us, we will be happy to help you.
There are a variety of materials available, such as PLA, ABS, PETG, nylon and resins. PLA is ideal for simple and inexpensive prototypes, while ABS and nylon are suitable for functional components with high load-bearing capacity. Resins are often used for detailed and smooth surfaces.
PLA is a biodegradable, easy-to-process material that is well suited for prototypes and hobby projects. ABS, on the other hand, is more robust and heat-resistant, making it ideal for technical components, but it requires a heated printing plate for best results.
Materials such as PETG and ASA are particularly weather-resistant and are therefore suitable for outdoor applications. Nylon can also be used outdoors, but should be protected from UV light to ensure a long service life.
Yes, there are flexible filaments such as TPU (thermoplastic polyurethane) that are suitable for applications where a certain elasticity is required, such as seals, tapes or protective covers.
The choice of material depends on the desired strength, heat resistance, flexibility and intended use. PLA is often sufficient for simple models, ABS or nylon may be more suitable for technical applications, while resin is the best choice for intricate and detailed models.
Some materials such as PLA and PETG can be food safe under certain conditions. However, the 3D printer itself should also be suitable for food printing and it is advisable to apply a food-safe varnish or sealant to ensure a smooth, safe surface.
Each material has specific printing requirements: PLA prints at around 190-220 °C, while ABS requires a higher temperature of 230-250 °C and also requires a heated printing plate. Materials such as nylon and TPU also require special settings to achieve optimum print quality and adhesion.
PLA is biodegradable and therefore more environmentally friendly than many other plastics. PETG and nylon are durable but not biodegradable. Some manufacturers offer recycled or plant-based material, which can also be a more sustainable choice.