3D Printing
“3D Creative” provides a wide range of the highest quality 3D printing services. We offer 3D printing services employing SLS (Selective Laser Sintering), BJ (Binder Jetting), MJF (Multijet Fusion), FDM (Fused Deposition Modeling), and SLA (Stereolithography) technologies to our customers.
Our 3D printer farm is made up of over 75 reliable highest quality devices
Advantages of 3D printing
- Extremely short preparation time and production time – the opportunity to have a real product on the same day it was created
- Molds and other expensive tools are unnecessary – the cost of 3D printing is much lower than producing single products in traditional ways
- Printed products can be used as prototypes before starting mass production of parts, thus accelerating the process of product development and improvement which in turn prevents costly errors
- Possibility to produce products with complex shapes that would take long or be impossible to produce by traditional methods
- A wide range of 3D printing materials allows adapting printed products for almost every field
- The speed and availability of 3D printing allow printing products on-demand – as much as you need at that moment
- Environmentally friendly technology with almost zero waste
Precise quality and accuracy
The only ones on the market, unique sizes of solid products
Small series 3D printing
Where to use?
Application of our 3D printing services
3D printing from plastic and sand is used in a wide range of fields: automotive and aviation industries, dentistry, reverse engineering, production of metal molds, architecture, design, sculpting, and restoration, as well as, for the needs of private clients. 3D printing technologies have become accessible to everyone and are applied to implement unique and exclusive projects daily.
In addition to 3D printing, we offer a full range of other services provided by the highest competence specialists in their field, meeting the needs of the most demanding customers. We consult on 3D printing and 3D scanning issues, create computer 3D models according to the provided drawings, photos, or sketches, and perform reverse engineering. We also provide 3D scanning services and deliver finishing of printed products, perform surface preparation, monochrome, artistic and pressure painting.
Technologies we use
SLS technology
With SLS (Selective Laser Sintering) 3D printing technology we print products from PA (polyamide) plastic powder. During the printing process a laser is used to melt the plastic powder.
Materials, their properties and technical specifications
| Material | Polyamide (PA) |
|---|---|
| Printing layer thickness | 60-150 µm |
| Power source used to bind material | Laser |
| The main areas of application | Architectural models; prototypes; finished products; mechanical parts of complex geometry |
| Advantages | High precision and detail; sharp angles and edges; strength; impact resistance |
| Dimensions | 340 x 340 x 620 (mm) |
| Accuracy | 50 µm |
Binder Jetting technology
We print products from quartz sand and PMMA (polymethyl methacrylate) plastic powder. During 3D printing, the powder is bonded with a special binder to form a solid product.
Materials, their properties and technical specifications
| Material | PMMA plastic | Quartz sand |
|---|---|---|
| Printing layer thickness | 80-200 µm; standard 150 µm | 200-300 µm; standard 200 µm |
| Adhesive distribution resolution | Up to 600 dpi | Up to 200 dpi |
| Binder (glue) | Polypor B; Polypor C | Furan; Phenolic |
| Tensile strength | 3,7-4,3 MPa | 220-380 N/cm² (bending strength) |
| Tensile strength when impregnated with epoxy resin | 25 MPa | – |
| Printing precision | 0,3 % | 0,2 % |
| Evaporation temperature | 600 °C – 700 °C | – |
| The main areas of application | Metal molding models (investment casting); product models; prototypes | Forms for metal casting (sand casting); patterns |
| Advantages | Sharp corners and edges; high precision and detail; almost no sediment (<0.3%) | Low gas emissions during casting (up to 250 L / h); almost odorless |
| Dimensions | 1050 x 600 x 500 (mm) (PMMA plastic) | 4000 x 2000 x 1000 (mm) (quartz sand) |
| Accuracy | 80 µm | 100 µm |
Multijet Fusion technology
When printing products with Multijet Fusion technology, a binder is sprayed on the thin-layer polymer powder in the required places, which is hardened by IR rays. Polyamide powder is used for printing.
Materials, their properties and technical specifications
| Material | Polyamide (PA) |
|---|---|
| Printing layer thickness | 80 µm |
| The power source used to bind material | Binder and IR rays |
| The main areas of application | Architectural models; prototypes; finished products; mechanical parts of complex geometry |
| Advantages | High precision and detail; sharp angles and edges; strength; impact resistance |
| Dimensions | 380 x 284 x 380 mm |
| Accuracy | 80 µm |
FDM technology
With FDM (Fused Deposition Modeling) 3D printing technology we print products from various polymers: ABS, PLA, ASA, ESD, PETG, HIPS, NYLON, TPU, WoodFill, PA CF and others. During production, the object is printed in layers by melting the filament fed to the heated print head.
Materials, their properties and technical specifications
| Material | ABS | PLA | PETG | PACF | TPU |
|---|---|---|---|---|---|
| Printing layer thickness | 50-600 µm | 50-600 µm | 50-600 µm | 50-600 µm | 50-600 µm |
| Tensile strength | 43-45 MPa | 47-66 MPa | 55-75 MPa | 170 MPa | 29 ± 2.8 MPa |
| The main areas of application | Product models; prototypes; finished products | Product models; prototypes; finished products | Product models; prototypes; finished products | Product models; prototypes; finished products | Product models; prototypes; finished products |
| Advantages | Strength; hardness; durability; surface quality | Surface quality; environmental friendliness | Abrasion and chemical resistance | High mechanical strength; resistance to high temperatures | Special elasticity |
| Dimensions | 1000 x 1000 x 1000 mm | 1000 x 1000 x 1000 mm | 1000 x 1000 x 1000 mm | 1000 x 1000 x 1000 mm | 1000 x 1000 x 1000 mm |
| Accuracy | Up to 100 µm | Up to 100 µm | Up to100 µm | Up to 100 µm | Up to 100 µm |
SLA technology
Using SLA (Stereolithography) 3D printing technology, products are printed from liquid photopolymer (resin). During the printing process, the 3D model is created layer by layer using a photopolymerization process: the light with special properties forces the chains of molecules to merge, thus creating polymers.
Materials, their properties and technical specifications
| Material | Standard resin | Engineering resin | Jewelery (castable) resin | Dentistry resin |
|---|---|---|---|---|
| Printing layer thickness | 25-100 µm | 25-100 µm | 25-100 µm | 25-50 µm |
| Power source used to bind material | Ultraviolet Laser | Ultraviolet Laser | Ultraviolet Laser | Ultraviolet Laser |
| The main areas of application | Product models; prototypes; finished products | Products with particularly good mechanical properties | Products used for molding – molds | Dentistry products |
| Advantages | High precision and detail; can produce transparent products | High precision and detail; can produce products with outstanding hardness; durability; flexibility; temperature resistance | Burns out cleanly without ashes or residues; has excellent detail and smoothness of surfaces | Biocompatible with the human body; can be used to fabricate precision surgical guides or other devices for medical equipment |
| Dimensions | 200 × 335 × 300 mm | 200 × 335 × 300 mm | 200 × 335 × 300 mm | 200 × 335 × 300 mm |
| Accuracy | 25 µm | 25 µm | 25 µm | 25 µm |