Erasmus+ KA220-VET · EduMobility 2.0

Project Outcomes

EduMobility 2.0 combines digital learning, programming, artificial intelligence, advanced manufacturing and practical vehicle development. The project aims to turn complex emerging technologies into accessible learning resources and real hands-on experiences for vocational education.

💻 Digital Learning 🤖 Programming & AI 🥽 VR & 3D Technologies 🚗 Functional Prototypes 🌍 Multilingual Access
What We Are Creating

From Digital Knowledge to Real Vehicles

Four connected outcomes form the educational and technical core of EduMobility 2.0. Together they connect theory, software, digital technologies and practical engineering.

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Outcome 1

Interactive Learning Platform

A free and accessible online learning platform will act as the central knowledge hub of EduMobility 2.0. Structured learning materials will cover ADAS, sensor technologies, autonomous vehicles, electric mobility, programming, machine learning and prototype development.

ADAS Autonomous Vehicles Electric Mobility Sensor Technology Interactive Learning Multilingual Content
Courses, interactive materials and downloadable resources will appear here as they are completed.
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Outcome 2

Applied Programming & Machine Learning

Learners will work with programming and intelligent systems through practical challenges. Activities connect code with sensors, vehicle behaviour and autonomous decision-making, allowing students to see how software controls real physical systems.

Python Arduino ROS Machine Learning Sensor Data Autonomous Navigation
Programming exercises, examples and practical challenges will be added during project development.
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Outcome 3

VR, 3D Printing & Digital Prototyping

Digital manufacturing and simulation technologies will connect virtual development with physical construction. Learners can design components, test ideas digitally, manufacture parts and understand how a modern engineering workflow moves from a digital model to a working physical system.

Virtual Reality 3D Printing CAD Digital Prototyping Remote Control Simulation
CAD files, 3D models, technical resources and practical exercises will be published here.
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Outcome 4

Functional Autonomous Vehicle Prototypes

Small-scale functional autonomous vehicle prototypes will bring together mechanical construction, electronics, sensors, actuators, programming and autonomous movement. They allow learners to move from individual technical concepts to a complete working system that can be programmed, tested and demonstrated.

Real Vehicle Application

Practical ADAS Calibration & Testing

The project also uses a real vehicle as a practical learning platform for ADAS camera and sensor calibration and testing.

Instead of relying only on expensive manufacturer-specific calibration stands, the educational setup can demonstrate the same underlying measurement and calibration principles using affordable universal targets and components.

This helps learners understand camera alignment, sensor positioning, calibration and testing principles rather than learning only how to operate one manufacturer-specific system.

Vehicle Construction Sensors & Actuators ADAS Calibration Camera Calibration Sensor Alignment Universal Targets Parking Obstacle Navigation
Prototype documentation, testing procedures, demonstrations and technical resources will be added as development progresses.
Learning Impact

What Changes for the Learner?

EduMobility 2.0 is not only about explaining new technology. Learners move from understanding systems to programming, building, calibrating and testing them.

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Understand

Understand how ADAS, sensors, electric mobility and autonomous vehicle systems work together.

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Program

Use Arduino, Python, ROS and machine-learning concepts to connect software with physical systems.

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Build

Design, manufacture and integrate components using CAD, 3D printing, electronics and practical engineering.

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Test & Calibrate

Work with sensors, ADAS cameras, calibration targets, autonomous movement and practical vehicle testing.

Designed to Be Used

Accessible, Flexible & Reusable

EduMobility 2.0 is designed around practical accessibility. Learning resources will be available online, support learners at different levels and use common digital formats and open technologies wherever possible. This allows the results to be reused in vocational education, higher education, professional training and self-paced learning.

Free Access Multilingual Modular Learning Self-Paced PDF Resources OBJ / DWG Open Technologies Practical Exercises
5+ Years of Planned Availability

The online platform and learning resources are intended to remain available and useful beyond the funded project period.

European Added Value

European Knowledge Network

Each EduMobility partner enters the project with different technical and educational strengths. European cooperation allows this expertise to move across the partnership and become shared capability.

Map of Europe showing EduMobility partner locations
🇪🇪 Pärnu
🇵🇱 Jastrzębie-Zdrój
🇹🇷 Kayseri
🇪🇸 Galdakao
🇪🇸 Gran Canaria
Pärnu Jastrzębie-Zdrój Kayseri Andra Mari José Zerpa
Beyond the Project

Built for Long-Term Impact

EduMobility 2.0 is designed so that its value continues after the funded project period through reusable resources, stronger institutional capability and continued European cooperation.

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Curriculum Integration

Learning materials, digital tools and prototypes can become part of regular vocational teaching and future courses.

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Reusable Resources

Digital materials, technical files and learning activities can continue to support future groups of learners.

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Transferable Across Europe

The universal and flexible approach allows other schools to adapt the project resources to their own educational context.

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Ready to Evolve

The platform and learning concepts can develop further as autonomous, electric and digital vehicle technologies continue to change.

Learn. Program. Build. Test.

EduMobility 2.0 connects digital learning with real engineering. The result is not simply a collection of educational materials, but a practical pathway from understanding emerging vehicle technology to applying it in working systems.