3D-Printing
and 3D-Scanning
Here you can realize your 3D model
Our 3D printing services
EANT has accumulated thousands of hours of printing experience through the use of 3D printed parts in the series production of satellite antennas. You can now easily benefit from this expertise for your 3D model. We offer a comprehensive service that ranges from individual consultation (analysis, materials, printing processes, verification of tolerance compliance) to the implementation of your 3D model.
Our Services
3D-Scanning
Would you like to digitize and/or reproduce an object? With our scanning service, you can do so with ease. We scan complex external and internal geometries of your object with an accuracy of ±0.01 millimeters. The data will be provided to you as an STL or STEP file, suitable for further development, re-engineering, or as an interactive 3D model for presentation on your website.
3D-Printing
EANT offers high-quality 3D printing services using the FDM (Fused Deposition Modeling) method.
Through innovative technologies and our solid expertise we are able to give shape to your ideas and transforming them into amazing 3D models.
Laser labeling
EANT offers top-quality laser engraving services to precisely and permanently mark your products or materials. Using state-of-the-art laser technology, we can customize a wide range of surfaces, particularly stainless steel, with logos, serial numbers, barcodes, or other specific markings to meet your requirements for traceability, identification, and product branding.
3D-Scanning Service
What is 3D-Scanning?
3D scanning involves creating a three-dimensional digital representation of an object using technologies such as photogrammetry, laser scanning, or structured light scanning.
This technology enables the production of accurate digital models and is widely used across various fields.
Example application of the 3D scan
Reverse Engineering
3D scanning provides precise information about the geometry of an existing object, enabling you to digitally analyze, reproduce, or modify it.
Rapid Prototyping
Once you have a digital 3D model of an object, you can use it for rapid prototyping. This allows you to create physical prototypes of the object using technologies such as 3D printing.
Visualisation
3D scanning enables the creation of realistic representations of objects for visualization and presentation purposes.
Quality Control
With 3D scanning, you can measure and inspect components for accuracy and precision.
Easy 3D-Scanning
How does it work?
You send it...
Send us your component
we scan it...
As soon as we can we realize a 3D scan of it
and back to you!
We send the component back together with its data record
3D-Printing Service
3D-Printing Production Process
FDM Process
FDM is the acronym of “Fused Deposition Modeling”. This is a layer-by-layer construction of three-dimensional objects by melting and extruding thermoplastic material. The FDM process essentially follows these steps:- Material preparation: thermoplastic filament, typically on a spool, is loaded into the 3D printer.
- Layer-by-Layer Construction: The filament is extruded through a heated nozzle that melts the material. The print head moves precisely according to the digital 3D model information and deposits the molten material layer by layer.
- Cooling and Solidification: After a layer is completed, the molten material quickly cools and solidifies before the next layer is applied.
- Process repetition: This layer-by-layer construction continues until the entire 3D object is completed.
The FDM process offers several pros
A wide range of materials available
There is a wide range of thermoplastic materials available, including PLA, ABS, PETG and many more.
Cost Efficiency
FDM is more cost-effective compared to some other 3D printing technologies, making it a popular choice for prototyping and producing functional parts.
Suitable for Prototypes
Due to its relatively fast printing speed, FDM is well suited for rapid prototyping and testing design concepts.
Send us your project!
(.STL, .STEP, .OBI, other formats)
Upload your 3D models here and receive feedback or a quote within 1-2 working days. If you do not yet have a model, you can also upload photos and documents to describe your project.
We will be happy to help you realise your ideas.
3D-Printing's Concrete Applications
Example 1: Components
IMU-Box
In der IMU-Box befindet sich eine Elektronik, die Bewegung und Position der Antenne im Raum misst. Das Gehäuse dafür wird genau nach Maß und mit den notwendigen Befestigungen gedruckt.
Endschalterhalter
Ein Endschalter ist ein elektronisches Schaltelement, das verwendet wird, um den Endpunkt oder die Endposition einer mechanischen Bewegung zu erfassen.
In diesem Fall benötigte die Antenne einen spezifischen und ziemlich einzigartigen Endschalterhalter, den wir daher maßgeschneidert entworfen und in 3D gedruckt haben.
Kabelführung
Eine Kabelführung ist eine Vorrichtung oder Struktur, die dazu dient, Kabel ordentlich und sicher zu führen, um eine geordnete Verkabelung in verschiedenen Anwendungen zu gewährleisten.
Der 3D-Druck dieser Elemente ermöglicht ein Produkt, das perfekt auf den Kabeldurchmesser und die gewünschten Abstände zugeschnitten ist.
Example 2: Roll arm
Roll arm so far:
Welded stainless steel construction
Rollarm new:
3D printing from carbon fibre (in this case an external print job)
The project ist currently still in its test phase, but the pros brought on the table by the 3D-Printing are already evident.
(Sample calculation for the production of a small series).
Costs: -20%
Time: -75%
Weight: -38%
Materials
list of the several materials available for 3D-Printing
PLA
PLA (polylactide) is known for its environmental friendliness and biodegradability.
Its popularity in 3D printing is due to its ideal printability and versatility.
PLA (Polyactid)
PLA stands for polylactide and is a popular 3D printing material. It is a bioplastic that is made from renewable resources such as corn starch or sugar cane. PLA is known for its environmental friendliness and biodegradability.
It is characterised by a relatively low printing temperature, which makes it compatible with many 3D printers. PLA is odourless during the printing process and emits less harmful fumes compared to some other filaments. It offers good layer adhesion, which leads to precise and detailed printing results.
However, PLA also has some limitations. It is not as heat resistant as other materials such as ABS and can deform at higher temperatures. Therefore, it may not be suitable for applications where elevated temperatures occur. Overall, however, PLA is a popular choice for 3D printing, especially when environmental friendliness and ease of use are paramount.
PETG
PETG is a thermoplastic with high impact strength and excellent resistance to chemicals and moisture.
PETG (Polyethylene terephthalate glycol)
It is a variant of PET (polyethylene terephthalate), which is also used in a lot of plastic packaging for drinks and food. In the 3D printing context, PETG offers a good combination of strength, toughness and transparency.
Some features of PETG are its high impact resistance and resistance to UV radiation, which makes it suitable for outdoor use. Compared to PLA, PETG is more heat resistant and only deforms at higher temperatures. It also has a lower tendency to shrink during the printing process compared to materials such as ABS.
However, PETG is not biodegradable, unlike PLA, and usually requires higher printing temperatures. However, it is widely used for functional prototypes, mechanical parts and applications where higher impact resistance is required. PETG’s transparency also makes it suitable for projects where clear or slightly translucent parts are required.
TPU
TPU (Thermoplastic Polyurethan) is known in particular for its elasticity, softness and flexibility, which make of it one of the most favourite material for flexible components.
TPU (Thermoplastisches Polyurethan)
TPU stands for thermoplastic polyurethane and is a flexible 3D printing material. Compared to other common filaments, TPU is particularly known for its elasticity, softness and pliability. It falls into the elastomer category, which means that it has rubber-like properties.
TPU is ideal for printing flexible and resilient components such as joints, seals, casings, protective covers, soles and other applications where flexibility and shock absorption are important. It retains its elasticity even at low temperatures and is resistant to oils and greases.
Another advantage of TPU is its ability to resist deformation and cracking without compromising its functionality. When processing TPU in 3D printing, it is important to ensure that the printer has an appropriate extruder temperature and printing speed to achieve optimal results.
TPU is an excellent choice for projects where flexibility and softness are required, and it is often used in areas such as prototyping, shoe design, toy manufacturing and other applications where flexible materials are required.
ABS
ABS (Acrylnitril-Butadien-Styrol)
ABS (acrylonitrile butadiene styrene) is a thermoplastic material known for its strength, hardness and toughness. ABS is often used in industrial applications, prototyping and in the manufacture of functional parts.
Some characteristic features of ABS are its high temperature resistance and chemical resistance. ABS filament requires higher printing temperatures compared to PLA, and it has a low tendency to shrink during the printing process. This makes it a suitable material for components with complex geometries.
Another advantage of ABS is its ease of post-processing. ABS parts can be easily sanded, filed, glued and painted after printing. However, ABS emits a characteristic odour during printing, which can be perceived as unpleasant, so the printing area should be well ventilated.
ABS is often used for the manufacture of mechanical parts, housings, prototypes and other applications where strength and durability are required. However, it should be noted that ABS is not biodegradable and can have an environmental impact when disposed of.
ASA
ASA (Acrylonitrile Styrene Scrylic ester) is often used for 3D printed parts that are to be used outdoors due to its high UV and weather resistance.
ASA (Acrylnitril-Styrol-Acrylester)
ASA stands for acrylonitrile-styrene-acrylic ester and is a 3D printing material composed of acrylonitrile, styrene and acrylic ester. It is a variant of ABS (acrylonitrile butadiene styrene) and was developed to overcome some of the disadvantages of ABS.
ASA is characterised by improved UV resistance, which makes it particularly suitable for outdoor use. In contrast to ABS, ASA is less prone to discolouration and embrittlement after prolonged exposure to sunlight.
It retains its mechanical properties and colour stability better over time.
Another advantage of ASA is that it has a lower tendency to emit odours during the printing process compared to ABS. ASA also requires higher printing temperatures, similar to ABS, and offers good impact resistance and strength.
Due to its weather resistance, ASA is often used for 3D printing components that are to be used outdoors, such as housings for electronic devices, garden furniture or other applications where UV resistance and weather resistance are important.
PVA
PVA (Polyvinylalkohol)
PVA, or polyvinyl alcohol, is a water-soluble 3D printing material.
This property makes it particularly useful for 3D printing media, as it can be used as a support material for complex parts or parts with intricate geometry.
Once the printing process is complete, the PVA substrate can be removed by immersing the printed model in water, without the need to use more invasive or damaging methods to remove the main part.
This enables high quality print results for complex models or models with difficult-to-print geometries, while reducing the time and labour required to remove the media.
PET
PET (Polyethylenterephthalat)
PET (polyethylene terephthalate) is a thermoplastic polymer known for its clarity, strength and durability. It is often used for 3D printing of transparent or slightly translucent objects.
A characteristic feature of PET is its high temperature resistance compared to some other common filaments such as PLA. It is also resistant to moisture and chemicals. PET is well suited for printing mechanical parts and objects that need to withstand a certain amount of stress.
It is important to note that there are two main types of PET filament: PET and PETG (polyethylene terephthalate glycol). PETG is a modified version of PET that has additional properties such as improved impact resistance and less tendency to crystallise.
Overall, PET is a versatile material in 3D printing, especially for applications where transparency and strength are required.
PA
Also known as nylon, PA is a durable and semi-flexible material with high impact and abrasion resistance.
It is the ideal choice for printing long-lasting parts.
PA (Polyamid)
PA stands for polyamide, also known as nylon, and is a 3D printing material with various properties available in multiple variants, such as PA6 (Polyamide 6) or PA12 (Polyamide 12).
Nylon is characterized by its high tensile strength, toughness, and impact resistance. It is flexible and exhibits excellent abrasion resistance. However, nylon filaments can absorb moisture, which should be taken into account during storage as it may affect the printing properties.
3D printing with nylon typically requires higher printing temperatures, and careful printer calibration is essential due to nylon’s tendency to warp and shrink. Nylon is renowned for its use in functional prototypes, tools, gears, and other components that must withstand high stresses or wear.
Overall, nylon is a versatile material with outstanding mechanical properties, widely used in 3D printing for a broad range of applications.
PC
PC (Polycarbonat)
PC stands for polycarbonate and is a thermoplastic 3D printing material with excellent mechanical properties. Polycarbonate is known for its high impact resistance, transparency, and heat resistance. It is often used in applications where strength and resistance to high temperatures are required.
Key features of PC include its ability to produce clear and transparent prints, as well as its resistance to chemicals and UV radiation. Polycarbonate is also suitable for 3D printing functional prototypes, technical components, and demanding engineering applications.
It is important to note that 3D printing with polycarbonate requires higher printing temperatures, so it is advisable to use a 3D printer capable of reaching these temperatures. Due to its outstanding properties, PC is a popular choice for 3D printing in demanding industrial and technical applications.
Carbon fiber/glass fiber reinforced polymer
Carbon fiber/glass fiber reinforced polymer
Carbon and glass fiber reinforced polymers are 3D printing materials strengthened by adding carbon or glass fibers to a polymer matrix material. These fibers significantly enhance the material’s mechanical properties.
Carbon fibers provide the material with high strength, stiffness, and lightness. These properties make it ideal for 3D printing parts where strength and low weight are crucial, such as in the aerospace and automotive industries.
Glass fibers also improve strength and stiffness but are generally slightly heavier than carbon fibers. Glass fiber reinforced polymers are often a good choice for applications that require a balance of strength and cost-effectiveness.
These reinforced polymers offer improved mechanical properties compared to pure polymers, making them suitable for functional prototypes, tools, and demanding engineering applications. It is important to note that 3D printing with carbon or glass fiber reinforced polymers may have specific requirements, including a durable print nozzle and higher printing temperatures.
Why 3D-Printing?
The advantages of 3D-Printing for the customer
1. Individuality and Personalisation
2. Rapidity and Flexibility
3D-Printing allows the rapid production of prototypes and goods. This way the production time is way shorter compared to the traditional production process.
3. Complex Geometries
4. Cost efficiency for small series
5. Resource Efficiency
6. Design Optimisation
7. Material Combination
8. Easy Changes and Updates
3D printer for professional applications
EANT will soon be offering its own 3D industrial printer, which has been specially developed for professional applications and large components.
Customised products with even larger installation space are also possible.
AS-1000
Key data (preliminary)
• Printer size: Width: 1810mm, Depth: 1500mm, Heigth: 1880mm
• Print objects XYZ: 1090mm, 1090mm, 1010mm
• Process: FDM
• Materials: alle Standard materials (PLA, PETG, TPU, ABS, ASA, PVA, PET, PA)
• Filament spools up to 10kg
• Multicolour printing
• Automatically switchable nozzles for maximum detail accuracy or fast printing
• Selective heating beds, can be switched on individually (energy-efficient)
Laser Labeling
Laser Labeling on Metals
Laser labelling can be used to create abrasion-resistant and forgery-proof markings or to make components permanently traceable.
A black oxide layer is applied to the stainless steel using localised material heating (annealing marking). The material surface remains even as nothing is removed. The local material heating merely results in a colour change. The heating usually penetrates 20 to 30 µm deep into the metal surface, which makes the marking abrasion-resistant.
In the case of aluminium, the marking is created by using a laser to remove the anodised layer previously applied to the metal.