Train future engineers with real-world AM

Give your students hands-on access to industrial SLS — used in R&D, prototyping, and production across aerospace, medical, and engineering industries.

Why SLS in education?

SLS 3D printing brings students and educators closer to real-world additive manufacturing than any desktop solution. It enables the creation of fully functional parts with precise geometries and moving elements — all without supports or molds.
Unlike FDM or resin printers, SLS reflects industrial processes used in top-tier labs and companies, making it a powerful tool for practical learning. With open parameters and a broad material range, it’s also a gateway to advanced experimentation and deeper understanding of manufacturing technologies.

Why SLS 3D printing with Sinterit is valuable for education

An SLS system finally accessible to students



Most universities can’t afford to give students real hands-on time with powder-bed systems. Sinterit solves this with a compact, easy-to-use SLS printer that’s designed to run safely and independently in teaching labs — without needing a dedicated operator or technician.

3D printed honeycomb structure for engineering education

No more fear of industrial machines



While some institutions own large-format additive systems, students rarely interact with them due to safety restrictions, scale, or complexity. Sinterit makes SLS approachable and manageable, so learners can take full ownership of the print process — from design to finished part.

3D printed bone fragment model

Teach true SLS workflows, not simulations



Unlike FDM or SLA, Sinterit enables students to understand and apply powder-based additive manufacturing as it’s used in real R&D and production environments. They gain experience with real sintering, material handling, nesting strategies, and post-processing — not just a simplified analogy.

3D printed anatomical brain model

Designed for education, used in industry



Sinterit printers bridge the gap between education and application. They’re used by leading universities and R&D labs worldwide, giving students access to the same tools they’ll encounter in engineering jobs — but in a format that supports learning, not just output.

3D printed origami-inspired geometric structure
Jakub Malec
Application Engineer, Sinterit

One of the biggest challenges we hear from educators is the gap between what students learn and what they’ll actually use in the field. With Sinterit’s SLS systems, they get access to the same technology used in real R&D labs — but in a format that’s safe, compact, and easy to integrate into teaching. Students can print, test, and iterate on complex parts with no support, which helps them understand both the design process and the material behavior. This hands-on experience truly prepares them for modern engineering environments — and in some cases, even enables them to win competitions organised by leading technology companies.

Minimal line icon of an engineer wearing a safety helmet and working on a laptop, on a blue background.

How educational institutions use Sinterit SLS solutions

Teaching & curriculum

  • Teaching the SLS workflow — from CAD to finished part
  • Demonstrating complex geometries and design for additive
  • Hands-on labs for DfAM (Design for Additive Manufacturing)
  • STEM project-based learning with real engineering tools
  • Student access to industrial tech in a safe, compact format

Research & innovation

  • Prototyping for academic research and grant-funded projects
  • Material testing and custom powder research with open parameters
  • Structural and mechanical testing using functional parts
  • Functional prototyping in robotics, medtech, or drone R&D
  • Integration of Lisa X into multidisciplinary lab environments

Overcome Your Challenge with the Right 3D Printer

  • Costs of investment

  • Return of investment

  • After Sales Support

  • Printouts Quality

  • Available Materials

We are determined to help you!

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Materials that support learning through practice

PA12 Industrial

A go-to material for mechanical and structural exercises, ideal for teaching load-bearing design and functional prototyping

PA12 Smooth
Metal container with label "PA12 Smooth Fresh Powder" – Sinterit 3D printing material, 6 kg.

Perfect for visual design and presentation tasks, helping students evaluate surface quality, aesthetics, and dimensional accuracy

PA 11.5
PA11.5 Powder 10kg bag

Used in impact or endurance testing, this material supports hands-on validation of strength-critical applications in student research

See and feel what your students or researchers will work with

Order a real SLS-printed sample and evaluate its quality, strength, and surface finish up close
Order sample

Discover case studies

FAQ – SLS 3D printing in education

Is SLS printing safe for use in educational labs?

Yes. Sinterit printers are fully enclosed, compact, and designed for safe use in university or classroom environments. No industrial-scale infrastructure is needed — only standard power and a clean space.


Can students operate the printer independently?

Absolutely. After a short onboarding, students can prepare builds, launch prints, and manage post-processing under supervision. This gives them real ownership of the process and boosts learning through direct experience.

What makes SLS different from FDM or SLA in teaching?

SLS allows students to print geometrically complex, functional parts with no support structures. This better reflects how additive manufacturing is applied in industry — from medtech to aerospace — and teaches real-world problem-solving beyond basic extrusion printing.

Do you offer educational pricing or academic packages?

Yes, we provide academic institutions with tailored pricing and bundles that often include training, support, and sample materials. Contact us for details specific to your region or curriculum needs.

What materials are best for educational use?

PA12 Industrial is ideal for structural components and functional projects, while PA12 Smooth offers high surface quality for design and presentation. PA 11.5 is used in mechanical stress tests and is great for student projects involving performance validation.

Can the printer be used for both teaching and research?

Definitely. Many institutions use Lisa X or Suzy for a mix of hands-on education and advanced research. With open parameters and repeatable accuracy, it serves both learning and experimentation equally well.

Is the system easy to install in a university lab?

Yes. Sinterit systems require only standard power and minimal space. There’s no need for dedicated ventilation or heavy infrastructure, making it easy to integrate even in shared lab environments.

Can students learn full powder-based workflows?

Yes — and that’s exactly what sets SLS apart. From powder loading and nesting to sintering and cleaning, students get real insight into professional AM workflows used in R&D and production labs.

What fields of study can benefit from SLS printing?

SLS is used in mechanical and biomedical engineering, product design, robotics, architecture, and materials science programs. It’s a valuable teaching and prototyping tool wherever real part function matters.

Is it possible to control print parameters for research?

Yes. With open printing parameters, educators and researchers can tweak sintering settings, experiment with powders, and conduct controlled studies. This is especially useful for material testing and process optimization.

Do Sinterit printers support project-based learning?

Yes. They’re ideal for project-based and team-based teaching. Students can prototype, test, and improve their designs iteratively — just like in real product development.

What are typical classroom applications for SLS?

Common use cases include prototyping in design courses, mechanical validation exercises, DfAM workshops, and multidisciplinary capstone projects. Lisa X helps bridge academic theory and hands-on practice.

Can the system be shared across departments?

Of course. Its versatility makes it useful across faculties — one unit can serve engineering, design, material science, and even medical programs. That makes it a great investment for shared labs or tech hubs.

How fast can students get results?

Lisa X prints full build volumes overnight, allowing students to test parts the very next day. This keeps academic projects moving without long lead times or production bottlenecks.

Is training provided for academic staff?

Yes. We offer online onboarding, documentation, and optional on-site training. Educators can quickly learn how to integrate SLS into teaching without technical overhead.

Pricing

Below there are approximate costs for some example models.
Be aware that the quotation assumes that there is only one piece printed. In SLS technology, the cost per part will be much lower with a higher number of elements printed at once.
  • Flexible
  • Standard
Model
Dimensions
PA12
Smooth
PA11
Onyx
Flexa
Grey
Flexa
Soft
TPE
Below
Model volume:
Model volume:
Total print height:
6.82 cm
Dimensions:
65 x 65 x 63 mm
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
Crank
Model volume:
28.12 cm^3
Total print height:
6.82 cm
Dimensions:
65 x 65 x 63 mm
49,90 €
49,90 €
49,90 €
49,90 €
49,90 €
49,90 €
Derailleur
Model volume:
28.12 cm^3
Total print height:
6.82 cm
Dimensions:
65 x 65 x 63 mm
71,80 €
71,80 €
71,80 €
71,80 €
71,80 €
71,80 €
Driller housing
Model volume:
28.12 cm^3
Total print height:
6.82 cm
Dimensions:
65 x 65 x 63 mm
157 €
157 €
157 €
157 €
157 €
157 €
Model
Dimensions
PA12
Smooth
PA11
Onyx
Flexa
Grey
Flexa
Soft
TPE
Crank
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
Crank
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
Crank
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
Crank
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
Crank
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
Crank
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
Model volume:
28.12 cm^3
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €
51,30 €

Get a free sample box

Universal joint + turbine
The free samplebox contains two printouts made from PA12 Smooth. They are both movable designs, and each one is printed in one piece.

These are examples showing high precision and freedom of design ensured by SLS technology.
order free sample box
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SEE ADVANCED samples
This product includes GeoLite2 data created by MaxMind, available from https://www.maxmind.com.