From Industry to Space: The 3D Scanning Strength Behind 3DeVOK

Date： 2026-10-13

The value of 3D scanning technology lies not only in how much detail a device can capture or how precise it is, but also in the optical engineering, product design, and R&D validation that stand behind it.

For professional users choosing a 3D scanner, understanding a product's technology background matters just as much. How a device is developed, how its measurement performance is verified, and how it handles technical challenges in different environments are all essential to understanding a 3D scanning brand.

3DeVOK is a professional-grade 3D scanning brand under Scantech (HANGZHOU) CO., LTD., dedicated to providing 3D scanning products and application support for professionals, creators, and education and research users. Behind it is the company's continuous exploration in 3D vision digitalization, and the technology and engineering expertise that Scanology has accumulated in industrial 3D measurement.

From precision measurement in industrial manufacturing to a special application project aboard China's space station, the company keeps pushing the boundaries of 3D scanning. The SIMSCAN aerospace unit's successful in-orbit experiment aboard the China Space Station is an important case in this journey of technological exploration.

I. SIMSCAN Enters China's Space Station: 3D Scanning Reaches a New Application Frontier

On October 31, 2022, the Mengtian lab module was launched aboard a Long March 5B rocket and later docked with the China Space Station complex. The SIMSCAN aerospace unit flew into space with the Mengtian module and successfully conducted its in-orbit experiment in 2023.

The Mengtian lab module is one of the three primary modules of the China Space Station's basic configuration. It primarily carries out space-science and applied-experiment tasks, providing an experimental platform for a wide range of scientific research.

Unlike conventional industrial applications, the space-station program imposed far stricter requirements on the device's form factor, weight, dimensions, measurement accuracy, and stability. The fact that the SIMSCAN aerospace unit completed its in-orbit experiment demonstrates the importance of developing products and validating them through engineering for specific application needs.

The project also shows the potential of 3D scanning beyond industrial manufacturing: by capturing 3D data through non-contact measurement, it provides measurement support for scientific experiments.

SIMSCAN aerospace unit applied aboard China's space station — in-orbit 3D scanning

II. Five Years of R&D and Validation: Overcoming Aerospace Engineering Challenges

The SIMSCAN China Space Station project began in early 2018. From requirement alignment and product development to launch, orbital insertion, and in-orbit testing, the whole process took five years.

To meet the program's requirements, the R&D team continuously optimized key metrics such as device structure, weight, dimensions, accuracy, and stability, and carried out more than a hundred simulation and verification tests, mainly including:

Static and dynamic stress analysis: evaluating how the structure responds under different load conditions, providing a basis for structural design and reliability verification.
Modal analysis: studying the product's inherent vibration characteristics to guide structural optimization.
Vibration analysis and verification: assessing the structure's adaptability to relevant mechanical environments.
Thermal analysis: studying how temperature changes and the thermal environment affect product design.
Accuracy testing: verifying the device's measurement performance to ensure it meets program requirements.
Stability verification: conducting tests around measurement consistency and operational reliability.

Through continuous R&D and verification, the project team resolved technical challenges in structure, weight and dimensions, and accuracy and stability, delivering a SIMSCAN aerospace-unit solution that meets the space-station program's requirements.

This R&D experience shows that the performance of a professional 3D scanning device depends not only on the optical system and measurement algorithms, but also on structural design, system optimization, and rigorous engineering validation.

Ergonomic evaluation of the SIMSCAN aerospace unit for space-station use

III. Non-Contact 3D Measurement Supports Space Science Experiments

In scientific research, accurately capturing an object's 3D geometric information helps researchers perform dimensional analysis, morphological recording, and follow-up data study.

Compared with traditional contact measurement, non-contact 3D scanning captures an object's surface data to offer an alternative technical path for specific measurement tasks. When direct contact is unsuitable or a fairly complete surface geometry is needed, this technology has unique value.

Depending on the experiment's requirements and measurement workflow, 3D scanning technology can play the following roles:

Capture 3D geometric data: recording the spatial information of an object's surface to provide a data foundation for subsequent dimensional analysis and morphological study.
Reduce reliance on contact measurement: in applicable scenarios, avoid directly touching the measured surface during the measurement process.
Support digital analysis: converting physical objects into 3D data for easier subsequent processing, comparison, and archiving.
Assist scientific experimentation: providing measurement support for experiment workflows that require 3D geometric information.

For space-station experiments, a measurement device's value depends not only on its data capture capability, but also on whether it meets the accuracy, stability, and usability requirements of the specific experimental environment.

The SIMSCAN aerospace unit's successful in-orbit experiment provides important practice for non-contact 3D measurement serving space-science research. Per the project plan, the device will continue to provide 3D measurement services for related China Space Station scientific experiments, building a precise data foundation for research.

IV. From Aerospace Projects to Industrial Applications: 3D Scanning Keeps Expanding Its Boundaries

Aerospace programs demand extremely high device performance and engineering validation, yet in industrial manufacturing, 3D scanning also plays an important role.

In automotive manufacturing, machining, product design, reverse engineering, and quality inspection, 3D scanners help users capture 3D data of components and use it for model reconstruction, dimensional analysis, design optimization, and digital archiving.

3DeVOK handheld 3D scanner used for automotive customization

For example, in reverse engineering, 3D scanning turns a physical part into digital geometric data that informs subsequent 3D modeling and product development. In automotive customization, scanning a vehicle's exterior, interior, or related parts helps designers obtain accurate structural information to support bespoke design. In product design, 3D data can record a physical form and enable downstream digital processing.

Different application scenarios have different requirements for device accuracy, scan range, operation method, and software workflow. Choosing the right 3D scanning device therefore means weighing the specific task against the actual use environment.

The R&D and engineering-validation experience shown by the SIMSCAN aerospace-unit project also reveals the systematic demands behind professional 3D measurement technology. Although the space-station application and routine industrial scanning differ clearly in environment and task, both rely on fully considering measurement performance, device reliability, and real application needs.

V. Scanology and 3DeVOK: Shared Technology Heritage, Different Markets

SCANTECH (HANGZHOU) CO., LTD. is a technology company specializing in the research, development, manufacturing, and sales of 3D scanning and measurement solutions. Its two brands, SCANOLOGY and 3DeVOK, serve distinct but complementary markets, sharing a common foundation in 3D vision technology and engineering expertise.

Dual-brand strategy of Scanology and 3DeVOK under Scantech (HANGZHOU) CO., LTD.

Scanology is the company's corporate brand and its dedicated brand for industrial 3D scanning and metrology solutions, serving applications such as industrial inspection, quality control, and 3D measurement.

3DeVOK is the company's brand for professional 3D digitization, providing versatile 3D scanning solutions for applications including automotive customization, 3D printing, education and research, art and design, and cultural heritage digitization.

While SCANOLOGY and 3DeVOK serve different market needs, both leverage shared expertise in 3D vision technology, engineering, and product development to advance 3D digitization across industrial and professional applications worldwide.

VI. Continuous Technology Innovation Drives 3D Digitalization Forward

From requirement alignment in 2018, to orbital insertion in 2022, and then the successful in-orbit experiment in 2023, the SIMSCAN China Space Station project reflects a process of sustained R&D investment and overcoming engineering challenges.

This achievement not only provides a practical case of 3D scanning technology serving space-science research, but also demonstrates the development potential of high-precision 3D measurement technology in special application environments.

Looking ahead, Scanology will continue to deepen its focus on industrial 3D measurement, while 3DeVOK will keep exploring 3D digitalization applications for professionals and creators, supporting work in product design, reverse engineering, automotive customization, and 3D modeling.

From industrial manufacturing to space-science research, 3D scanning technology is helping people record, measure, and understand the real world in a digital way. The SIMSCAN aerospace unit's completion of in-orbit experiments aboard China's Space Station is an important achievement in which Scanology and 3DeVOK continue to advance 3D measurement technology innovation.

FAQ

1. What is 3DeVOK?

3DeVOK is a professional-grade 3D scanning brand under Scantech (HANGZHOU) CO., LTD., serving professionals, creators, and education and research users, with applications spanning product design, reverse engineering, automotive customization, and 3D modeling.

2. When did the SIMSCAN aerospace unit enter China's Space Station?

The SIMSCAN aerospace unit was launched into orbit with the Mengtian lab module on October 31, 2022, and successfully conducted its in-orbit experiment in 2023. The project began with requirement alignment in early 2018 and went through five years of R&D and validation.

3. Why is 3D scanning suitable for space-science research?

3D scanning can non-contactly capture an object's surface 3D geometric data, providing a data foundation for dimensional analysis, morphological recording, and digital research. Actual results depend on the specific experimental needs, device performance, and use environment.

4. What is the relationship between Scanology and 3DeVOK?

Both Scanology and 3DeVOK belong to the brand portfolio of Scantech (HANGZHOU) CO., LTD.. Scanology primarily serves the industrial 3D measurement and inspection market, while 3DeVOK targets professional-grade 3D scanning applications, serving professionals, creators, and education and research users.

5. Does the SIMSCAN space project mean 3DeVOK products are also space-certified?

No. The SIMSCAN aerospace unit's successful in-orbit experiment is a specific achievement for the China Space Station program and cannot be directly equated with all 3DeVOK products being space-certified. The performance, design requirements, and applicable environments of different products should be based on their respective official product documentation.

6. Besides aerospace, where else can 3D scanners be used?

3D scanners are widely used in automotive manufacturing, reverse engineering, product design, industrial inspection, machining, cultural-heritage digitization, and 3D modeling. Users can choose a device based on the measured object's size, surface characteristics, accuracy requirements, and workflow.

7. What factors should I consider when choosing a professional 3D scanner?

It is recommended to consider measurement accuracy, scan speed, the measured object's size, surface material, detail-capture capability, operation method, software functions, and after-sales technical support. For applications with special requirements, also confirm whether the product has been validated against the target environment and task.

Learn more about 3DeVOK 3D scanners and how 3D scanning technology fits into your professional design and digital workflows.

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.