Additive manufacturing for metal components at the highest level.

Machining - coating - joining or repairing three-dimensional, large metal components.

The FOOKE AM 50 introduces new dimensions in additive manufacturing for metals. This innovative machine combines precision, material diversity and efficiency at a level that has been especially developed for the requirements of modern, industrial applications. Benefit from a production technology that meets the highest standards for design freedom, resilience and flexibility with the FOOKE AM 50.

3D printing system

High-Precision 3D printing systems for Industrial Applications – Engineered in Germany

At FOOKE GmbH, we combine decades of experience in mechanical engineering with a forward-thinking approach to innovation. As a specialist in portal milling machines and friction stir welding (FSW) systems, we are now taking the next logical step: developing a state-of-the-art 3D printing system designed for the additive manufacturing of large-format components.

Our mission is not just to apply new technologies—but to advance them. The result is a dependable and high-performance 3D printing system based on the proven Additive Friction Stir Deposition (AFSD) process. Unlike many conventional metal additive manufacturing methods, this solid-state process avoids melting the material. The advantages are clear: significantly lower residual stresses, minimal risk of porosity or cracking, and a consistently high level of part quality.

With the AM50, we offer a robust solution for producing large-volume parts with edge lengths exceeding 300 mm. Our customers benefit from FOOKE’s deep expertise, a thoughtfully engineered machine architecture, and a stable process that integrates seamlessly into existing manufacturing environments.

If you’re looking for a 3D printing system built on reliability, precision, and decades of German engineering excellence, FOOKE is the partner you can trust.

FOOKE’s 3D Printing System: 

High-Performance Metal Additive Manufacturing with the AFSD Process

Our Additive Friction Stir Deposition process:

Additive Friction Stir Deposition (AFSD) is a solid-state additive manufacturing process designed for high-efficiency, large-scale metal part production. Unlike traditional metal 3D printing methods, AFSD operates below the melting point of the material, significantly reducing thermal stress and improving structural integrity.

  • High deposition rates of up to 14 kg/h enable rapid, cost-effective production
  • Heat is generated through frictional stirring, not melting, resulting in minimal distortion
  • Process temperatures reach approximately 60–90% of the base material’s melting point, preserving material properties
  • Accepts square or rectangular solid feedstock for greater material flexibility
  • Plasticized material is deposited in layers, allowing for continuous, near-net-shape builds
  • Ideal for producing large-format components (from >300 mm up to several meters in length)



    Thanks to its unique advantages, Additive Friction Stir Deposition (AFSD) is well suited for industries requiring robust, large-scale metal components with low residual stress and minimal porosity—such as aerospace, defense, shipbuilding, and heavy industry.

HIGHLIGHTS & BENEFITS

No melting - improved rigidity
This print technology does not reach the melting temperature, which keeps the thermal stresses in the component low. In addition, higher mechanical material properties are achieved compared to conventional build-up welding processes.

Wide range of materials
This technology can be applied to a wide range of commercially available metals, including aluminum, titanium, stainless steel and others.

Sustainable, environmentally friendly and resource-saving
By using additive manufacturing, the required components are set up close to the final contour so that the actual amount of material used is minimal. Subsequent post-processing of the components, e.g. by milling, is extremely efficient, as near-net-shape printing requires low machining rates. This also significantly reduces the processing time.

Customization
Customer-specific solutions and individual components are easy to implement using the AFSD process.

Repair
The process is also suitable for repair work (e.g. casting molds). It enables shorter maintenance times compared to the procurement of new parts.

Flexibility of application
With additive manufacturing, there are no limits to the design - even functions that cannot be realised with conventional manufacturing processes can be integrated. Moreover, complete assemblies can be constructed in a single process, e.g. cooling channels or hydraulic lines.

Short production times and flexibility
Complex components can be manufactured directly and no longer require time-consuming procurement times. In addition, customised modifications, e.g. in prototype construction or pre-series, can be implemented quickly and easily.

High deposition rate of up to 14 kg/hour.
due to patented application process.

Material mix
The process enables mixed joints of different materials (e.g. copper and aluminium).

Reduction of milling rates
By producing close contour components, the need for post-processing can be significantly reduced.

Flexibility in the material supply chain
High availability of the printing material.

Boost Your Efficiency with

FOOKE’s Advanced Additive Manufacturing Solutions

We offer the solution to the ever-increasing demands for efficiency, flexibility, and quality in large-scale metal manufacturing. Our system combines the latest in additive manufacturing technology with a robust machine design and high production performance—making it the ideal choice for companies ready to take their manufacturing to the next level.

Contact us for a personalized consultation and discover how FOOKE can optimize your production and open up new market opportunities.

Phone: (248) 218 5880
Email: info[at]​fooke-usa.com
 

Ein Mitarbeiter von Fooke steht lächelnd vor einem Flugzeug.

Demo model
part printed - part milled.

Post-processing is carried out using conventional subtractive processes such as drilling, milling, grinding, etc. Similar to most common additive manufacturing processes, the AFSD process also requires reworking on the functional surfaces, as only rough surface structures can be produced due to the process.

FOOKE AM50 3D Printing System: A Flexible, Precise, and Material-Efficient Solution engineered for Demanding Industrial Applications

A smart choice for forward-thinking industries—from automotive and aerospace to shipbuilding, defense, rail, and precision tooling.

Material Benefits and Industrial Applications

FOOKE’s additive manufacturing systems are compatible with a wide range of metal alloys—including aluminum, titanium, stainless steel, and nickel-based alloys—making them ideal for demanding, industry-specific applications. Thanks to the flexibility of the Additive Friction Stir Deposition (AFSD) process, they enable the rapid production of large, custom metal components with the high level of process reliability and precision FOOKE is known for.

Aluminum

Low weight with high stability – ideal for applications in the aerospace and automotive industries.

Stainless steel

Corrosion-resistant material offering high strength and heat resistance. Suitable for tool and mold making as well as industrial machine components.

Titanium

High corrosion resistance and biocompatibility – ideal for medical implants and aerospace components.

Nickel

High temperature resistance – ideal for turbines and engines in the energy and oil industries.

Copper

Excellent electrical and thermal conductivity makes copper the material of choice for applications in the electronics, energy, and transportation industries. Copper components such as heat sinks, electrical contacts, and heat exchangers are manufactured using 3D printing.

Material mix

FOOKE's additive manufacturing systems enable the processing of material combinations, allowing for the targeted integration of different material properties within a single component. This makes it possible to produce parts with, for example, high thermal conductivity in one zone and excellent corrosion resistance in another. This capability for material hybridization is especially advantageous for components used in highly demanding environments.

How the AFSD-Based 3D Printing System Delivers Value:

Manufacture, Coat, Join, and Repair large, three-dimensional metal components.

Double-T beam

Aluminum

Flange connection

Copper

Flange rings with diameters of 10ft and 4 ft

Aluminum

Aircraft wing hinge

AL7075

Fuel flap

AL6061

Demonstration part

AL6061

Matthias Müller
Head of R&D at FOOKE

At FOOKE, we’ve been closely following the dynamic growth of additive manufacturing—especially in the field of metal 3D printing. The increasing number of industrial applications using these technologies is nothing short of impressive. Recognizing this momentum, we’ve taken a major step forward: Since November 2023, we’ve partnered with U.S.-based MELD Manufacturing. As a result, we now offer MELD’s innovative 3D print head for use in our high-precision, ultra-rigid machine systems—enabling the production of large, metallic components with high structural integrity. What makes this partnership so exciting is the technical synergy: MELD’s technology is based on a process principle that is very similar to Friction Stir Welding (FSW)—a method we've mastered for years. Both technologies plasticize the base material without melting it, and both require similar process forces. This alignment opens up new possibilities for robust and efficient metal additive manufacturing. To support this technology, we’ve established a dedicated AFSD team at FOOKE, ready to guide our customers from initial design to real-world application. Whether you're just starting out or looking to scale up, we’re here to help. We look forward to pushing boundaries—together with you—and setting new standards in the world of metal 3D printing.

A Partnership That Powers Innovation in Additive Manufacturing

FOOKE and MELD: 

FOOKE and MELD have combined their extensive expertise in an innovative partnership to develop the FOOKE AM 50—a state-of-the-art, high-performance machine tool designed for industrial-scale additive manufacturing.

The MELD process, based on Additive Friction Stir Deposition (AFSD), is a solid-state method in which the material is not heated to its melting point during processing. This unique approach opens up a wide range of possibilities: in addition to additive manufacturing, it is also well-suited for coating applications, repairing complex components, and joining dissimilar metals.

Because the material is processed below its melting temperature, the process results in minimal residual stress compared to melt-based techniques. It also delivers lower energy consumption and components with higher density and strength. Its similarity to Friction Stir Welding (FSW) offers further advantages, helping to avoid common issues such as porosity and hot cracking, and ensuring consistent material quality and greater reliability in production.

Another key benefit of this technology is its flexibility: The MELD process operates in open-air environments and is not dependent on controlled atmospheres or specific surface conditions. This makes it ideal for handling large-scale metal workpieces without extensive pre-processing.

When combined with FOOKE’s gantry-style machine platform and MELD’s cutting-edge print head, this technology enables additive manufacturing of large, high-strength metal components—precisely tailored to the needs and scale of your production.

FOOKE AM 50 – Precision. Power. Additive Manufacturing Excellence.

The FOOKE AM 50 is an innovative and high-performance machine tool, specifically developed for Additive Friction Stir Deposition (AFSD) of large-volume metal components. Its extremely rigid machine structure is engineered to absorb the high process forces generated during AFSD with ease. Thanks to this robust design, the FOOKE AM 50 is ideally suited for use in key industries such as aerospace, defense, and rail vehicle manufacturing, where strength, precision, and reliability are critical.

Performance, Technology, and Configuration

Automated Process Control: The FOOKE AM 50 features real-time data monitoring, optimized process planning, and advanced fault detection—minimizing downtime and ensuring continuous production.

User-Friendly Interface: The intuitive control software offers a smooth onboarding experience for new users, while providing advanced configuration options for experienced operators.

Safety Features: A fully enclosed system combined with comprehensive safety mechanisms ensures maximum protection for both operators and the machine.

Machine Structure: The machine bed, including the mounted X-axis guideway and portal drive systems, is installed and precisely aligned on the designated foundation. The longitudinal beams, side sections (X-axis), portal (Y-axis), and ram (Z-axis) are all built as rigid steel-welded structures for maximum stability and durability.

Drive Technology – Linear Axes: The X- and Y-axes are driven by rack-and-pinion systems, while the Z-axis is powered by a ball-screw drive. The X-axis features two motors and drives—electronically synchronized on each side to eliminate backlash and gear play between the gear teeth.

Linear Axis Guidance: All linear axes are equipped with preloaded, backlash-free roller guide elements made of hardened and ground components, ensuring high precision and rigidity.

Axis Lubrication: The linear axes feature an automatic centralized lubrication system. Round axes are equipped with a low-maintenance, long-life lubrication system, reducing service requirements and ensuring consistent performance over time.

Machine Specifications

FOOKE AM 50

Travel Distances

X-axis: 40 to 3,5 in
Y-axis: up to 235 in
Z-axis: up to 98 in

Traverse Speeds

X-axis: approx. 1,575 in/min
Y-axis: approx. 790 in/min
Z-axis: approx. 395 in/min
 

 

Material Deposition Rates

Aluminum: up to 30.9 lbs/h
Steel: up to 11.0 lbs/h
Titanium: up to 11.0 lbs/h
Nickel: up to 1.5 lbs/h
 

 

Layer Thickness / Layer Width

Layer thickness: 0.02 – 0.24 in
Layer width: 0.39 – 1.97 in
(individually adjustable via the tool)

3D Print Head

The print head generates heat through the friction stir process, causing the feedstock material to undergo plastic deformation. This enables Additive Friction Stir Deposition (AFSD) to occur at controlled process temperatures—approximately 60% to 90% of the base material’s melting point—by depositing metal layers in the solid state.

Deposition Spindle

Axial force: 11 lbf
Power: 50 hp
Torque: 500 lb-ft
Spindle speed: 50 to 650 rpm
Feedstock profile: Square
Profile size: 0.5 in
Cooling: Water-cooled
 

Material Feeder

Feedstock profile: Square
Profile size: 0.5 in
Feed rate: up to 20 in/min
Feed force: up to 6,000 lbf
Feedstock length: approx. 24 in
Magazine capacity: up to 400 pieces

Power Supply

Voltage: 3 × 400 V PEN ±10%
Frequency: 50 Hz ±1%
Power consumption: 100 kW
Rated current: 210 A
Circuit protection: max. 250 A fuse
Short-circuit current: 10 kA
Connection: according to local electrical codes
Network type: TN-C system with overcurrent protection device in accordance with VDE 0100

European standard supply. Transformer or converter may be required depending on regional infrastructure.

CNC Control System

Controller: Siemens SINUMERIK ONE
Interface: MELD Interface integrated
Features: Equipped with HMI and ITC touchscreen

 

FAQs – 3D Printing Systems

What industries benefit most from 3D printing systems?

3D printing systems are widely used in aerospace, automotive, defense, energy, rail, and heavy equipment industries. Their ability to produce complex, large-scale metal components makes them ideal for high-performance and mission-critical applications.

How do 3D printing systems compare to traditional manufacturing methods?

Compared to conventional machining or casting, 3D printing systems offer greater design flexibility, reduced material waste, and shorter lead times—especially for prototyping, custom parts, and low-to-medium volume production.

What materials can be processed with FOOKE’s 3D printing systems?

FOOKE’s systems support a wide range of metal alloys, including aluminum, titanium, stainless steel, nickel-based alloys, and even copper. Hybrid material combinations are also possible through solid-state additive processes like AFSD.

What is the difference between AFSD and melt-based metal 3D printing systems?

AFSD (Additive Friction Stir Deposition) is a solid-state process, meaning the material never reaches its melting point. This results in lower residual stress, better mechanical properties, and fewer issues like porosity or cracking compared to melt-based processes.

How large can components be when produced using your 3D printing system?

Our systems are specifically engineered for large-format metal additive manufacturing, with build volumes ranging from a few inches up to several meters—ideal for structural parts, tooling, and industrial components.

Is your 3D printing system easy to integrate into existing production environments?

Yes, FOOKE’s 3D printing systems are designed with seamless integration in mind. They include automated process controls, user-friendly interfaces, and compatibility with existing CAD/CAM workflows, making implementation straightforward for most manufacturing operations.