Why Does Modern Engineering Education Need Additive Manufacturing?

Modern industry – from instrument making and civil aviation to medicine and automotive – relies on additive manufacturing. The use of 3D printing and 3D scanning makes it possible to produce complex geometric parts, optimize structural weight, and reduce prototype development cycles from months to a few hours.

For educational institutions, implementing these technologies is a direct path to preparing in-demand specialists. Theoretical study of physics, mathematics, and geometry receives practical application: students go through the full engineering cycle – from a digital CAD model on a computer screen to a physical product in hand.

3D printing STEM laboratory equipment by 3Ddevice

From a Single Device to a Complete System: The Turnkey STEM Laboratory Concept

Purchasing a single 3D printer often fails to deliver the desired educational impact due to a lack of consumables, essential peripheral equipment, and methodological teacher training. A full-fledged educational process requires a systematic approach.

The 3Ddevice engineering approach provides ready-to-use turnkey complexes, including:

  • Compatible equipment integration (3D printers, 3D scanners, laser engravers).
  • Selection of energy-efficient, reliable, low-noise equipment suitable for classroom environments.
  • An annual or initial supply of certified materials (PLA, PETG).
  • Auxiliary equipment (filament dryers, adhesives, air purifiers).
  • Practical teacher training and ongoing support during curriculum integration.

Overview of Ready-to-Use 3Ddevice STEM Laboratory Kits

Depending on the goals of the educational institution, student skill levels, and available budget, three base STEM laboratory configurations have been developed.

Basic STEM equipment kit by 3Ddevice

1. Basic STEM (Starting from 36,980 UAH)

An optimal solution for institutions beginning the integration of additive manufacturing into the learning process. The kit focuses on mastering FDM 3D printing fundamentals and basic 3D modeling.

Kit Components:

  • Professional 3D Printer Elegoo Centauri Carbon 2 – 1 unit.
  • PETG Farm3D Filament (1 kg, 1.75 mm) – 4 spools.
  • Magigoo Original Adhesive Glue Stick (50 ml) – 1 unit.
  • SUNLU Filament Dryer SP2 – 1 unit.
  • Basic teacher training course and launch support.

Reverse engineering and 3D scanning in a STEM classroom by 3Ddevice

2. Complex STEM (Starting from 255,779 UAH)

A complete solution for establishing a full reverse-engineering learning cycle. It allows students to progress from digitizing a physical object with a 3D scanner to adjusting its CAD model and manufacturing it on a 3D printer.

Kit Components:

  • 3D Printer Elegoo Centauri Carbon 2 – 1 unit.
  • High-precision 3D Scanner 3DeVOK MQ – 1 unit.
  • PETG Farm3D Filament (1.75 mm) – 100 kg.
  • PLA Farm3D Filament (1.75 mm) – 100 kg.
  • SUNLU SP2 Filament Dryer and Magigoo adhesives.
  • Advanced teacher training, system deployment, and service support.

Flagship STEM 3D printing laboratory by 3Ddevice

3. Flagship STEM (Starting from 1,663,902 UAH)

A full-scale miniature production line for lyceums, technical colleges, and STEM hubs. It supports various technical polymers, large-format production, and laser material processing.

Kit Components:

  • Professional Large-Format 3D Printer CreatBot D400 HS – 1 unit.
  • 3D Printer KLEMA 700 – 1 unit.
  • 3D Printer Raise3D E3 – 1 unit.
  • Handheld 3D Scanner Peel 3D Peel 3 – 1 unit.
  • Laser Engraver ORTUR R2 Smart Dual Laser (20W + 1.3W IR) – 1 unit.
  • Ortur YRR 3.0 Rotary Roller and Ortur 1.0 Smoke Purifier.
  • Material supply: 100 kg PETG and 100 kg PLA.
  • Complete set of auxiliary hardware, advanced training, and technical service support.

Curriculum Integration and Methodological Support

The primary objective of a STEM laboratory is to become an effective tool for educators. The equipment easily integrates into school curricula across several disciplines:

  • Physics: studying kinematics, material thermodynamics, and structural strength properties.
  • Mathematics and Geometry: constructing 3D vector models, plane intersections, calculating volumes and surface areas.
  • Computer Science and Robotics: designing microcontroller enclosures, creating articulated mechanical assemblies.
  • Industrial Technology / Crafts: mastering modern digital manufacturing methods.

Teacher training courses and instruction for 3Ddevice STEM laboratory

3Ddevice specialists conduct hands-on training for teaching staff after equipment installation. This allows educators to confidently run classes and develop custom educational modules.

How to Select the Optimal Configuration?

Selecting the right equipment depends on available facilities, group sizes, and institution budget. 3Ddevice engineers assist in drafting technical specifications, calculating laboratory power consumption, and customizing configurations for schools, lyceums, or colleges.

Watch the video below for a detailed overview of the kits, their components, and operational examples. To request a cost estimate or custom technical specification for your educational institution, click the button below to contact our specialist.

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