Introduction
HyFlex learning (Hybrid + Flexible) was first developed by Brian Beatty (2006). It is an innovative instructional model that combines in-person, synchronous online, and asynchronous online learning into a single, integrated framework. It provides learners with the flexibility to choose how they participate in the learning process, adapting to their individual needs, schedules, and learning preferences. The HyFlex model is especially valuable in vocational education (VET) where students often face real-world challenges, such as balancing work, training, and personal commitments. It enables students to engage in hands-on, experiential learning using both physical and virtual resources.
Future Class Labs (FCL) are innovative learning environments designed to support 21st-century skills by combining technology, flexible spaces, and active learning strategies. They are structured into different zones—such as Create, Investigate, Interact, and Present—that allow students to engage in hands-on, collaborative, and personalized learning experiences. FCL encourages creativity, problem-solving, and teamwork by integrating tools like VR, AR, 3D printing, and robotics into the curriculum. This approach aligns with constructivist and experiential learning theories (and others which will further be explored in the Framework), giving students opportunities to explore, experiment, and apply knowledge in real-world contexts. The concept of Future Class Labs was developed and promoted by European Schoolnet, a network of European Ministries of Education that focuses on advancing educational innovation. The FCL model is not just about introducing new technologies; it represents a shift in pedagogy, classroom design, and teacher roles to create a more engaging and effective learning experience. The guiding principle is that classrooms should no longer be static spaces where students sit in rows and listen passively to lectures. Instead, they should function as adaptive, collaborative, and technology-enhanced ecosystems where students are active participants in their own learning.
HyFlex and FCL reflect different but complementary approaches to learning. HyFlex focuses on empowering students to choose how they engage with content, giving them flexibility and control over their learning process. In contrast, FCL creates a structured environment where students can engage in diverse, hands-on, and interactive learning experiences tailored to their strengths. When combined, these models create a powerful and inclusive learning ecosystem where students are not only free to choose how they learn but are also supported through varied, multimodal learning experiences that reflect their individual needs and capabilities.
To understand the pedagogical foundation behind HyFlex learning and Future Classroom Labs (FCL), we need to explore the learning theories and educational models that underpin these approaches. Both models reflect modern trends in education, aiming to enhance student engagement, flexibility, inclusivity, and technology integration.

Curriculum
- 9 Sections
- 56 Lessons
- Lifetime
- Pedagogical Foundations of HyFlex Learning and FCLIntegrating Emerging Digital Technologies in VET: Pedagogical and technical use of AR, VR, AI, and digital fabrication tools in teaching15
- 1.1Pedagogical Foundations of HyFlex Learning and FCL- INTRODUCTION (Copy)
- 1.2How Constructivism Applies to HyFlex Learning (Copy)
- 1.3Experiential Learning (Kolb) (Copy)
- 1.4Social Learning Theory (Bandura) (Copy)
- 1.5Universal Design for Learning (UDL) (Copy)
- 1.6Pedagogical Foundation of HyFlex Learning (Copy)
- 1.7Pedagogical Foundation of FCL (Copy)
- 1.8Scenario 1: Interact – VR Training for Robotic Arm Programming (Arduino/ESP32-based) (Copy)
- 1.9Scenario 2: Investigate – AR-Assisted Troubleshooting for Mechatronic Systems (Copy)
- 1.10Scenario 3: Create – 3D Printed Custom Parts for Robotics (Copy)
- 1.11Scenario 4: Exchange – Remote-Controlled IoT Robotics with ESP32 and Web Interfaces (Copy)
- 1.12Scenario 5: Develop – Predictive Maintenance with Sensors and Arduino (Copy)
- 1.13Scenario 6: Present – Interactive Robotics Demonstration Using VR and 3D-Printed Components (Copy)
- 1.14Conclusion (Copy)
- 1.15Sources (Copy)
- Integrating Emerging Digital Technologies in VET: Pedagogical and technical use of AR, VR, AI, and digital fabrication tools in teaching14
- 2.1Introduction to Emerging Digital Technologies in VET (Copy)
- 2.2Augmented Reality (AR) in VET (Copy)
- 2.3Virtual Reality (VR) in VET (Copy)
- 2.4Artificial Intelligence (AI) in Education (Copy)
- 2.5Digital Fabrication Tools in VET (Copy)
- 2.6Pedagogical Strategies for Technology Integration (Copy)
- 2.7Challenges and Ethical Considerations (Copy)
- 2.8Activity 1: Designing a Mini-Project with 3D Printing (Copy)
- 2.9Activity 2: Creating a Prototype of an AR Experience (Copy)
- 2.10Activity 3: Using AI to Develop a Short Educational Video (Copy)
- 2.11Visual References for Activities (Copy)
- 2.12Sources (Copy)
- 2.13Module Evaluation (Copy)10 Questions
- 2.14Introduction (Copy)
- Future Class Lab methodology and Generative AI10
- IoT i praksisTen moduł zawiera materiały dotyczące urządzeń wykorzystywanych w Internecie Rzeczy. Znajdują się tu materiały teoretyczne, głównie dotyczące płytek ESP i Raspberry Pi, a także praktyczne przykłady i narzędzia ewaluacyjne. 2. Cele edukacyjne Aby ukończyć ten moduł, student powinien znać: Podstawy elektrotechniki; Podstawy elektroniki; Podstawy programowania w języku C. Cele edukacyjne podczas pracy z modułem: Praca w zespole; Umiejętności czytania ze zrozumieniem i rozwiązywania problemów; Nauka i praca z płytkami deweloperskimi ESP i Raspberry Pi; Zapoznanie się z konfiguracją środowiska Home Assistant; Zapoznanie się z narzędziami takimi jak Alexa, Node-Red, ESP HOME, MQTT, chatbot i innymi i korzystanie z nich. 3. Szacowany czas trwania Teoretyczna treść modułu: Urządzenia ESP – 120 minut Urządzenia RASPBERRY PI – 120 minut Ćwiczenia praktyczne modułu: Ćwiczenie 1: HOME ASSISTANT – 240 minut Ćwiczenie 2: ALEXA – 90 minut Ćwiczenie 3: MQTT – 120 minut Ćwiczenie 4: CHATBOT – 90 minut Ewaluacja modułu – 30 minut Razem – 810 minut8
- IoT and Smart Systems Iot and AI integration including Generative AI0
- Learning Situations & Templates0
- Flipped Classroom in VET and Digital Tools Resource Bank0
- Future Classroom Labs Design0
- Inklusion og tilgængelighed i erhvervsuddannelser (VET)10
- 9.1Inklusion i erhvervsuddannelse
- 9.2Universelt design for læring (UDL) i erhvervsuddannelser
- 9.3Strategier til støtte for neurodivergente elever i erhvervsuddannelser
- 9.4Digitale tilgængelighedsværktøjer
- 9.5Aktivitet 1: Design af inkluderende læringsmiljøer i erhvervsuddannelser
- 9.6Aktivitet 2: Anvendelse af UDL-principper i en lektionsplan for erhvervsuddannelse
- 9.7Aktivitet 3: Skabelse af visuel og struktureret læringsstøtte
- 9.8Aktivitet 4: Digitalt tilgængelighedstjek af online-materialer
- 9.9Aktivitet 5: Design af autismevenlig læringsstøtte i erhvervsuddannelser
- 9.10Kilder
Instructor
