Upload the drawing or 3D file of your component, specifying the scale.
Let us know the required quantity, the material and any special features, such as special material properties or challenges.
After we have inspected your component, you will receive a free consultation on the optimization potential.
We calculate the production costs of your request and, on request, also perform a cost analysis of your portfolio.
We manufacture your MIM component using the binder jetting process and send it to you.
This completely authentic and non-magnetic steel is ideal for demanding environments. It is characterized by its corrosion resistance, high ductility and temperature resistance.
The steel is used in a variety of industrial applications, including those with mildly corrosive environments and high strength requirements.
▪ 304L stainless steel
▪ CoCrMo
▪ Nickel alloy IN718
▪ Nickel alloy IN625
▪ H13 tool steel
▪ M2 tool steel
▪ Titanium (Ti64)
We are DIN ISO 9001 certified. The international standard specifies requirements for a quality management system (QMS) that covers the documentation and monitoring of all our processes in the provision of products or services. This ensures that the requirements of our customers are met and that continuous improvement takes place in our company. Certification to DIN ISO 9001 is carried out by independent certification bodies and certifies that the company has successfully implemented a QMS and continuously maintains and improves it.
The TISAX certification ("Trusted Information Security Assessment Exchange") is a standard audit procedure for information security. The certification follows a comprehensive audit by an accredited auditing company and ensures that appropriate security measures are implemented and that our customers' personal data and confidential information are protected.
Sales Engineer
+49 1724059105
frederik.nussbaumer@am-pioneers.com
We offer industrial 3D printing services for metal, ceramic, and plastic components—from design and material consulting to series production and post-processing.
As a specialized 3D printing service provider, we support companies in the mechanical engineering, medical technology, aerospace, energy, and research and development sectors.
We offer 3D printing services for various additive manufacturing technologies in the fields of metal 3D printing, ceramic 3D printing, and plastic 3D printing.
Binder Jetting – Metal 3D printing and ceramic 3D printing
Binder Jetting is a sintering-based additive manufacturing process for the cost-effective series production of complex metal or ceramic components. The process consists of three steps: printing, debinding, and sintering.
In the field of metal 3D printing and ceramic 3D printing, we work with several Binder Jetting systems from the manufacturer Desktop Metal at our Technology Center in Esslingen. The process chain is complemented by modern sintering technologies from Carbolite Gero for processing a wide variety of materials.
Stereolithography (SLA) – Ceramic 3D Printing
Ceramic 3D printing using the SLA (stereolithography) process is based on VAT photopolymerization (VPP). In this process, a liquid, light-sensitive resin is cured layer by layer using a UV laser.
In Esslingen, we work with systems from the manufacturer 3DCeram, which developed this technology specifically for the industrial 3D printing of high-performance technical ceramics.
PµSL Micro 3D Printing – High-Resolution Plastic 3D Printing
Using the PµSL process, we manufacture high-precision components with extremely fine details in the micrometer range. While conventional DLP 3D printers typically achieve resolutions of 50–100 µm, our S240 system from Boston Micro Fabrication enables an optical resolution of up to 10 µm with dimensional tolerances of ±20 µm.
This technology is particularly well-suited for high-precision plastic 3D printing in microfluidics, medical technology, and micromechanics.
DLP 3D Printing – High-Resolution Plastic 3D Printing
In the field of plastic 3D printing, we work with modern DLP 3D printers from Elegoo and ETEC in addition to FDM and SLA technologies.
In the DLP (Digital Light Processing) process, a liquid photopolymer material is cured layer by layer using light. This allows for the production of highly precise and complex plastic components with excellent surface quality.
Modern DLP 3D printers are particularly suitable for:
FDM 3D Printing – Cost-Effective Plastic 3D Printing
The FDM (Fused Filament Fabrication) process is an additive manufacturing process in the field of plastic 3D printing. In this process, a thermoplastic filament is heated, melted, and applied layer by layer through a nozzle.
This process is particularly suitable for:
Metal 3D printing is particularly well-suited for:
Additive metal manufacturing processes, in particular, enable a high degree of design freedom and cost-effective production of complex geometries.
Ceramic 3D printing enables the production of high-temperature-resistant and wear-resistant components with complex geometries for industrial applications.
Engineering ceramics are particularly suitable for:
Modern DLP 3D printers enable exceptionally high detail resolution and surface quality in plastic 3D printing.
This makes the process ideal for:
In addition to our industrial 3D printing services, we offer comprehensive sintering services for metals. Sintering is a key process step in sinter-based additive manufacturing processes such as metal 3D printing, as components only achieve their final strength and material properties through the thermal compaction process.
At our technology center in Esslingen, we use state-of-the-art high-temperature sintering furnaces from Carbolite Gero to process a wide variety of materials and process atmospheres. For more information about our sintering furnace, please visit the following link: https://am-pioneers.com/en/htk-8/
As a 3D printing service provider, we combine modern additive manufacturing technologies with extensive expertise in materials and processes.
Our 3D printing services include:
This is how we support companies throughout the entire additive manufacturing process chain—from the initial concept to the finished component.