Metal 3D Printing
From Digital File to
Functional Part
Transform your digital file into a physical part.
Together, we bring your ideas to life — with speed, precision, and confidence.

Build Capabilities
We offer a wide range of build volumes to suit different application needs:
250 x 250 x 325 mm
500 x 280 x 365 mm
600 x 600 x 600 mm
Whether you're producing prototypes or end-use parts, we scale with your ambition.
Materials We Print In
We work with a robust portfolio of high-performance materials, enabling production across demanding industries:
AlSi10Mg
Lightweight and corrosion-resistant aluminum alloy
Ti64 Grade 5
Aerospace-grade titanium with excellent strength-to-weight ratio
SS 316L
Durable and corrosion-resistant stainless steel
IN718
High-strength nickel alloy for extreme environments
Hastelloy X
Ideal for high-temperature applications
17-4 PH
Precipitation-hardened stainless steel for high mechanical strength
MS1
Maraging steel for tooling and high-strength applications
Material Data & Quality Assurance
Explore detailed material data sheets for AISi10Mg and SS 316L to learn more about performance characteristics and processing parameters.
Whether you need fast turnaround, reverse engineering, or certified quality control - our Metrology Lab delivers the precision you can trust!
Case Studies Hub
Our Case Studies Hub showcases a wide variety of industrial applications where additive manufacturing made a measurable difference. Each case includes:
The business challenge
The AM-based solution
Quantifiable impact and results
Whether you're in aerospace, automotive, energy, or defence — gain valuable insights from successful strategies and best practices.
- All
- Aerospace
- Industry
- Internal studies
- Tooling

Pythom Space rocket engine
lean sheet design by Pythom Space, enabled by additive manufacturing!
- This part is 3D printed with Inconel IN718 material, and thanks to 3D printing, the manufacturing lead time was reduced from 6+ months to only 6 weeks
- Regenerative cooling while firing at 3000 °C
- Successful hot fire tests were conducted only nine months after initial funding
Company: Pythom Space

Motor Housing for Formula Student
- Material: AlSi10Mg
- Full component build time: 10h
- Layer thickness: 60µm
- Printing less expensive compared to machining due to the large amount of material that would need to be machined away.
- Less material waste and therefore more sustainable
Company: Atlas Copco

Different Support structure possibilities
- Material: Ti64 Grade 5
- Same design, three different support structures:
1. e-Stage: easier to remove and faster to print
2. Smart Fusion: thermal approach from EOS where the meltpool temperature is measured
3. Standard support

To Go package boxes made with fiber forming
- Material: Aluminum
- Functionally optimized surface structures
- Parametric design methodology, able to adapt to any type of product
- Increased production output by 30%
Company: Stora Enso

Support for two reaction wheels in a satellite
- Material: AlSi10Mg in 60 µm layer thickness
- Print time full build plate (6 pcs): 7,5 h quad laser
- Designed through topology optimization with the goal of reducing weight and cost while still maintaining stiffness.
- The weight reduction is 1/3 in comparison to the previously machined part and the stiffness remains the same.
- AM enables production of complex desgins without increasing manufacturing costs.
Company: OHB

Heat Exchanger
- Combining multiple components into one
- Printing is done by utilizing full build envelope and M290-2 two lasers with novel print technologies, like Optical Tomography and SmartFusion
- AM design improves the cooling efficiency and the AM part size is remarkably smaller than the original geometry
- Weight 39 kg, material 316L

Proof of Concept for a 6G radio
- Material: AlSi10Mg
- 4 brackets in one build: 68 hours build time quad laser
- Substantial lower assembly time and increased cooling performance
- Consolidated from 7 components into 1, 2 parts per radio needed
- Reduction of weight which saves energy
Company: Ericsson

Heat exchanger
- Material: Hastelloy X Full component build time: 90 hours dual laser
- Lowered lead time from 9 months to 6 weeks
- Consolidated from over 700 parts into one single piece
- 3D Printed features increases heat exchanger performance
Company: Saab