3D tiskanje

Naložite svoj 3D model, za vse ostalo poskrbimo mi. Od tiskanja do končne dostave – poskrbimo za vsak korak.

Pošlji povpraševanje

Zaupajo

nam

Postopek

Naložite datoteke

Naložite datoteke

Pošljite nam svoje CAD modele ali tehnične načrte. Za ostalo poskrbimo mi.

[01]
Izberite postopek

Izberite postopek

Svetujemo vam pri izbiri ustrezne tehnologije, materiala in obdelave.

[02]
Prejmite ponudbo

Prejmite ponudbo

Vse podrobnosti na enem mestu. Potrdite, ko ste pripravljeni.

[03]
Prevzem izdelkov

Prevzem izdelkov

Izdelke varno dostavimo — neposredno v vašo delavnico, pisarno ali dom.

[04]

Zmožnosti

FDM

[cenovno ugodno][praktično]
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Delovni prostor 450x450x500 mm³
Natančnost 0.2 mm (typical)

Fused Deposition Modeling (FDM) je razširjena tehnologija 3D tiskanja, pri kateri se termoplastični filament segreva, tali in nanaša po plasteh za izdelavo tridimenzionalnih objektov. Tehnika je izredno prilagodljiva, dostopna in uporabna v različnih industrijah zaradi svoje preprostosti in učinkovitosti.FDM je primeren za hitro izdelavo prototipov, validacijo konceptov, izdelavo pripomočkov, učnih modelov, prilagojenih delov in celo končnih izdelkov. Uporablja se v avtomobilski, letalski in medicinski industriji, pa tudi v izobraževanju, umetnosti in industrijskem oblikovanju. Zaradi ugodne cene in prilagodljivosti je FDM pogosto prva izbira za raznolike potrebe 3D tiskanja.

Prednosti

  • Nizki stroški
    Nizka začetna investicija in ugodni materiali.
  • Material Variety
    A wide selection of thermoplastics, including PLA, ABS, PETG, and more.
  • User-Friendly and Accessible
    FDM printers are easy to operate and widely available.
  • Rapid Prototyping
    Facilitates fast production of prototypes for testing and design iterations.
  • Customisation and Personalisation
    Ideal for tailored or one-off creations.
  • Good Mechanical Strength
    Prints are durable and functional.
  • Large Build Volumes
    Capable of creating sizable objects.
  • Eco-Friendly
    Some materials, such as PLA, are biodegradable.

Disadvantages

  • Lower Print Resolution
    Prints may lack fine detail.
  • Visible Layer Lines
    Layer-by-layer construction often leaves visible lines on the surface.
  • Limited Dimensional Accuracy
    Precision can vary, especially for intricate designs.
  • Material Limitation
    While versatile, some advanced materials are not compatible.
  • Post-Processing Requirements
    Sanding or smoothing, is often needed for a polished finish.

Materials

Material
Toughness
(Impact Strength XY)
Strength
(Tensile Strength XY)
Stiffness
(Flexural Modulus XY)
Layer Adhesion
(Tensile Strength XY)
Heat Resistance
(HDT)
PLA
26.5 kJ/m²
76 MPa
2750 MPa
13.8 MPa
57 °C
PETG HF
31.5 kJ/m²
64 MPa
2050 MPa
10.6 MPa
69 °C
ABS
39.3 kJ/m²
62 MPa
1980 MPa
7.4 MPa
87 °C
ASA
41.0 kJ/m²
65 MPa
2860 MPa
4.9 MPa
100 °C
PC
34.8 kJ/m²
108 MPa
2410 MPa
9.0 MPa
137 °C
TPU for AMS
124.3 kJ/m²
N/A MPa
N/A MPa
9.6 MPa
N/A °C
MPa
kJ/m²
MPa
MPa
MPa
°C

SLA

[precision][detail][finish quality]
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Stereolithography (SLA) is a 3D printing process that uses a technique called photopolymerisation to create three-dimensional objects. It is one of the earliest additive manufacturing methods developed and remains widely used due to its ability to produce highly detailed and accurate models.SLA is particularly favored in applications that demand precision, such as high-resolution prototypes, intricate models, dental tools, jewelry, and industries where fine details and smooth finishes are essential.

Advantages

  • High Precision and Accuracy
    Ideal for detailed and intricate designs.
  • Smooth Surface Finish
    Produces parts with excellent aesthetic quality.
  • Wide Material Selection
    Compatible with a range of resins, including specialized options like biocompatible or flexible resins.
  • Support Structure Automation
    Automatically generates supports, simplifying the design process.
  • Fast Printing Speed
    Efficiently produces high-resolution parts.
  • High Resolution
    Captures fine details with remarkable clarity.
  • Great for Iterative Prototyping
    Compared to other methods like Fused Deposition Modelling (FDM) and Selective Laser Sintering (SLS), SLA stands out for its precision, smooth finishes, and material versatility. These attributes make it highly valuable for industries like medical, dental, and jewellery manufacturing.

Disadvantages

  • Limited Print Size
    Smaller build volumes compared to other technologies.
  • Higher Equipment and Material Costs
    SLA printers and resins tend to be more expensive.
  • Material Compatibility
    Limited to photopolymer resins, which may lack durability for certain applications.
  • Post-Processing Needs
    Parts often require washing, curing, and sanding to achieve the final finish.
  • Heat Resistance Issues
    SLA-printed parts may not tolerate high temperatures well.
  • Support Removal
    Removing supports can be time-consuming and may affect the surface finish.
  • Longer Print Times for Complex Parts
    High resolution can lead to extended print durations.

SLS

[strength][efficiency][complex designs]
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Selective Laser Sintering (SLS) is a 3D printing technology that uses a high-powered laser to selectively fuse powdered materials layer by layer, building three-dimensional objects. This additive manufacturing process enables the creation of complex, functional prototypes and final parts with high precision and intricate designs.SLS is widely utilised across industries such as automotive, aerospace, consumer goods, medical, and architecture. It’s particularly suited for low-volume production, rapid prototyping, and manufacturing components with intricate geometries. By eliminating the need for molds or tooling, SLS is a cost-effective solution for producing lightweight parts, customised medical devices, architectural models, and more. Its material versatility further enhances its appeal for applications requiring durability and functionality.

Advantages

  • Here's the content converted to your requested format: Broad Material Compatibility
    Works with a variety of powders, including nylon, polyamides, and composite materials.
  • Complex Geometries
    Can produce intricate designs without compromising structural integrity.
  • No Support Structures Needed
    Unlike other methods, SLS doesn't require support structures, reducing material waste.
  • Strong and Durable Parts
    Delivers excellent mechanical properties for functional prototypes and end-use components.
  • Cost-Effective for Low-Volume Runs
    Eliminates the need for molds, reducing costs for small-scale production.
  • Efficient Production
    Allows for fast, batch manufacturing of multiple parts at once.
  • Reduced Material Waste
    Only the material used for the object is sintered, minimizing leftover material.
  • Functional Prototypes
    Produces parts ready for testing and application.

Disadvantages

  • High Equipment and Operating Costs
    Initial investment and operational expenses are significant.
  • Limited Build Size
    The size of printed objects is constrained by the build chamber.
  • Post-Processing Requirements
    Parts often need cleaning and surface finishing after printing.
  • Material Limitations
    Limited to specific powdered materials, which may not suit all applications.
  • Rough Surface Finish
    Printed parts can have a slightly grainy texture, requiring additional smoothing.
  • Heat Sensitivity
    Some materials may not perform well under high temperatures.
  • Limited Colour Options
    Most SLS parts are single-colour, usually shades of white or gray.
  • Heat Resistance Issues
    SLA-printed parts may not tolerate high temperatures well.

3D Printing Materials

Flexible plastics

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  • Nylon 11 (PA 11)
  • Nylon 12 (PA 12) glass-filled
  • Nylon 12 / PA 12 (SLS, MJF)
  • Nylon 12 full-colour / CB PA 12
  • Polypropylene (PP)

Rigid plastics

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TPU (Thermoplastic Polyurethane)

Choose from a range of post production services.

Perfection doesn't stop at printing.
Enhance your parts with sanding, coating, coloring, assembly, and more. Every detail, refined to the last layer.

The work speaks for itself

Explore our success stories across industries. From automotive prototypes to medical device components, our portfolio showcases the limitless potential of 3D technology.

Advantages of working with us

  • Custom solutions

    From idea to execution, we craft tailored solutions using 3D printing and advanced technologies like laser cutting, CNC machining, and finishing.

  • Rapid prototyping

    Reimagine what’s possible. Recreate, improve, and innovate with precision and expertise.

  • Top quality

    Bring your concepts to life quickly and precisely. Perfect for testing, refining, and launching with confidence.

  • Custom solutions

    From idea to execution, we craft tailored solutions using 3D printing and advanced technologies like laser cutting, CNC machining, and finishing.

Let's Build Something Extraordinary Together.

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