Ahead of the 2026–27 academic year, universities, vocational colleges, and research laboratories are entering a new cycle of teaching-equipment procurement and lab upgrades.

As technologies such as 3D printing, reverse engineering, and digital design move into programs like mechanical engineering, industrial design, automotive engineering, and additive manufacturing, 3D scanners have become essential tools for digital teaching and hands-on practice.

For an institution, procuring a 3D scanner is not just adding one more piece of equipment. It means weighing several questions: can a single device serve multiple departments? Can it cover different types of teaching projects? And can the scanned data flow into downstream design and manufacturing workflows?

So what should universities focus on when procuring a 3D scanner?

I. Where Can 3D Scanners Be Used in Teaching?

3D scanning quickly converts real objects into 3D digital data, which can then be used for modeling, reverse engineering, design, and 3D printing.

For universities and vocational colleges, it can support a wide range of programs and hands-on directions.

Mechanical Engineering and Machine Design

Mechanical parts are a major application of 3D scanning. Scanning a part yields its 3D data, which students can use for reverse modeling, structural analysis, and product improvement — letting them experience the full path from physical object to digital model to engineering design.

Industrial Design and Product Design

For objects with complex surfaces — products, models, and more — 3D scanning captures the overall form quickly, providing a data foundation for downstream digital modeling, product design, and appearance updates.

3D Printing and Additive Manufacturing

3D scanning and 3D printing can form a complete data chain: Physical object → 3D scanning → 3D data → design modification → 3D printing.

Students not only learn scanning techniques, but also gain a deeper understanding of the complete digital additive-manufacturing workflow.

Automotive Engineering and Vehicle Modification

Automotive components, interior trim, and exterior parts often feature complex surfaces. 3D scanning captures their 3D data for reverse design, structural analysis, and modification development.

Innovation Labs and Makerspaces

University labs often need to be open to students across different majors and grade levels. Therefore, a device's application range, ease of operation, and adaptability to multiple scenarios are especially important.

From mechanical parts and product models to complex surfaces and organic shapes, a device that covers more scenarios is better suited as a shared teaching tool across departments.

II. How Is 3D Scanning Already Used in Education and Practice?

Whether 3D scanning fits university teaching cannot be judged from a spec sheet alone — real projects best demonstrate its value.

From Winter Olympics equipment customization, to orthotic aids in vocational education, to skills competitions, 3DeVOK professional 3D scanning is entering a wide range of educational and practical scenarios.

Winter Olympics Equipment: 3D Scanning for Personalized Helmet Customization

During the Beijing 2022 Winter Olympics, Scantech (HANGZHOU) CO., LTD. partnered with the Additive Manufacturing and Intelligent Manufacturing Research Center at Dongguan University of Technology to create custom helmets for athletes on China's national skeleton team.

The project used an iReal 2E 3D scanner to capture athletes' head 3D data, then combined it with each athlete's head shape and performance needs for a personalized fit design, and completed manufacturing via 3D printing. The final custom helmet was more than 0.5 kg lighter than conventional solutions.

This project demonstrated the complete application flow of human 3D scanning → digital design → 3D printing → personalized product, and highlighted the value of 3D scanning in university research and practice projects.

Vocational Education: Human-body Scanning for Orthotic Aid Design

In a vocational-education setting, Taizhou Vocational and Technical College applied 3D scanning to human-body data capture and orthotic-aid related practice.

Skills Competitions: 3D Scanning Enters Hands-on Training

The 3DeVOK MT was used as sponsored equipment at the 6th 'Pinghu Craftsman' Vocational Skills Competition in Wanzhou District, Chongqing.

Compared with classroom demonstrations alone, skills competitions emphasize real operation and engineering practice, taking 3D scanning from a teaching tool further into vocational-skill training.

From university research projects, to vocational-college training, to skills competitions, 3D scanning is becoming an important tool for developing digital skills.

III. What Matters Most When Universities Procure a 3D Scanner?

The biggest difference between university procurement and personal purchase is that one device often needs to serve multiple instructors, multiple classes, and even multiple departments.

Therefore, beyond accuracy and scan speed, several other factors deserve close attention.

1. Is it easy to learn?

Both instructors and students may become users of the device.

The more intuitive the workflow, the easier it is to integrate into daily courses, and the lower the time cost of instructor training and student learning.

2. Can it cover multiple departments?

The teaching subjects at a university are not fixed.

One day you may scan a mechanical part; the next, a product model, an automotive component, or even a plant with a complex form.

Therefore, a device's adaptability across multiple scenarios matters more than any single parameter.

3. Does the 3D data support downstream design?

3D scanning is not the endpoint. The scanned data still needs to enter downstream steps such as CAD modeling, reverse engineering, and 3D printing. So beyond scan accuracy, you should also consider data completeness, detail fidelity, and the subsequent software workflow.

4. Can it form a complete teaching workflow?

A 3D scanner that truly integrates into teaching should help students complete:

Physical object → 3D scanning → 3D data → digital modeling → design modification → 3D printing / manufacturing

Extending from a single scan to a complete project is what truly delivers the device's teaching value.

IV. Why the 3DeVOK MT Fits University Teaching

For universities, vocational colleges, and comprehensive labs, one device must handle different majors and different types of scanning objects — so professional capability, accuracy, and scenario adaptability all matter.

The 3DeVOK MT features three light sources (34-line blue laser, 22-line infrared laser, and wide-area infrared speckle) that switch flexibly according to the scanning object and task, suiting mechanical parts, product models, complex human-body surfaces, plants, and other object types.

Three Light Sources for Different Object Types

Objects differ in size, structure, and surface characteristics. The 3DeVOK MT uses three light sources — 34-line blue laser, 22-line infrared laser, and wide-area infrared speckle — and switches scanning modes flexibly based on each object's size, material, and surface features.

Among them, the 34-line blue laser suits objects with high detail and accuracy requirements such as mechanical parts and complex structures, reaching accuracy up to 0.04 mm; the 22-line infrared laser suits multi-color object scanning, delivering stable 3D data capture across different color regions; and the wide-area infrared speckle requires no markers, making it ideal for scanning humans, sculptures, plants, and other complex-shaped objects.

A single device can cover teaching objects ranging from mechanical parts to complex surfaces to irregular natural objects, opening up more application possibilities for practical projects across departments.

One Device, Multiple Departments

For mechanical engineering, the 3DeVOK MT professional 3D scanner captures 3D data of components for dimensional analysis and reverse design; for industrial design, it quickly obtains 3D data of products and models to inform subsequent design and development; for 3D-printing related programs, it supports object digitization, model replication, and remanufacturing; and for automotive-related programs, it captures data from components, complex surfaces, and modification parts.

For university labs that must serve multiple departments and cover different experimental projects, the value of the MT lies not only in being a 3D scanner, but in connecting multiple practice stages — 3D data capture, digital modeling, reverse engineering, and digital manufacturing — through one device.

V. How Should Universities Choose a 3D Scanner for the 2026–27 Academic Year?

For universities and vocational colleges, choosing a 3D scanner should not come down to comparing spec sheets.

More importantly, first clarify three questions:

• Who will use it? Instructors, students, or a shared lab used by many?
• Where will it be used? Mechanical engineering, industrial design, 3D printing, automotive engineering, or other innovation projects?
• What happens after scanning? CAD modeling, reverse engineering, 3D printing, or actual product development?

When a device can cover more teaching scenarios and connect to downstream digital design and manufacturing workflows, its value is no longer just 'a scanner' — it becomes a link in a university's digital teaching system.

For the 2026–27 academic year, if your institution is building or upgrading labs, advancing program development, or procuring teaching equipment, a professional 3D scanner that balances accuracy, efficiency, and multi-scenario adaptability can open up greater application space for digital teaching and practice across departments.

To support universities, vocational colleges, and education institutions, 3DeVOK also offers academic-year education pricing, helping more instructors and students access and apply professional 3D digital technology at a lower cost.

Choosing a 3D scanner for your university lab?

Contact 3DeVOK to learn about our academic-year education pricing and 3D digital solutions suited to different departments and teaching scenarios.

About 3DeVOK & SCANOLOGY

SCANOLOGY is a leading metrology brand delivering high-precision 3D measurement solutions for modern manufacturing and engineering. With over 10 years of expertise, six pioneering technological innovations, and customers in more than 70 countries, SCANOLOGY became the first publicly listed company in China's 3D scanning industry in 2025. Its solutions serve industries including aerospace, automotive, heavy equipment, additive manufacturing, and cultural heritage preservation, supporting major projects such as the China Space Station, China’s C919 passenger aircraft, and the China–Egypt joint archaeological program.

3DeVOK, a brand of SCANOLOGY, focuses on professional 3D scanners for applications including automotive customization, medical rehabilitation, museum and cultural heritage digitization, education and research, art and design, and maker projects. Committed to making professional 3D scanning easier and more accessible, 3DeVOK empowers users to bring their ideas to life.