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HBO/WO

MBO

October 2, 2026

Constructive, Collaborative, Contextual, and Self-Directed Learning

Problem-Based Learning (PBL) has shaped education at Maastricht University (UM) for more than five decades. Yet PBL is sometimes narrowly associated with one particular instructional format: the seven-step approach. Constructive, Collaborative, Contextual, and Self-Directed (CCCS) Learning at the Faculty of Science and Engineering (FSE) takes a broader perspective. It presents the four CCCS learning principles as a flexible set of design principles for meaningful teaching, learning, and assessment. The booklet brings together more than thirty examples from across FSE. Organised around Science, Technology, Engineering, Arts, and Mathematics (STEAM), the cases span educational levels from pre-university education to PhD training and cover a wide variety of formats, including tutorials, laboratories, projects, fieldwork, assessment, games, and technology-enhanced learning. Each case starts from an educational challenge, describes a concrete intervention, and reflects on the design through the CCCS lens. Readers encounter examples ranging from student-led mathematics tutorials and open-ended physics experiments to robotics projects, ecological fieldwork, co-created assessment, serious games, and authentic engineering challenges. Together, they demonstrate that student-centred learning can take many different forms while remaining academically rigorous and appropriate to the demands of STEAM education. Rather than prescribing a single method, the booklet inspires educators to rethink their own practice. It shows how CCCS learning principles can serve as a shared language for educational innovation while allowing room for disciplinary differences, creativity, co-creation, playful learning, technology, and different approaches to PBL. The collection is intended as a practical source of ideas for teachers, course coordinators, programme directors, educational developers, and University Teaching Qualification participants within Maastricht University and beyond. Its central message is simple: CCCS learning is not confined to one classroom format or one disciplinary tradition; it is a versatile foundation for designing engaging and meaningful higher education.

Open (Access) Text Book

Martijn Boussé, Hanne Diliën, Joris van Poecke, Lonneke Bevers, Stefan Jongen

September 1, 2026

Integrated Infrastructure Design Guide

Infrastructure forms the backbone of our society – from roads and railways to waterworks and ports – as critical part of vital systems for mobility, water and space. But that backbone is under strain. Ageing systems, climate change and scarce resources force us to rethink fundamentally how we design, use and value infrastructure. This Design Guide starts with one urgent question: how can we make infrastructure future-proof in a world of uncertainty? It introduces integrated approaches in which design, engineering, policy and societal value come together through a wide range of inspiring examples related to urban and regional accessibility and development, spatial quality, flood protection, and ecological restoration. The book demonstrates how infrastructure can be more than merely a functional system. It becomes a driver of societal value and prosperity, and a strategic instrument that connects quality of life, sustainability and economic development. This Design Guide offers a clear conceptual framework to understand and design infrastructure that is not only more efficient, but also more sustainable, inclusive and meaningful. Drawn from thematical insights and lessons, and applicable methods, techniques and strategies by a broad range of scientists and professionals of practice with a background architecture, urban development and design, landscape architecture, civil engineering, economics, governance or policy. A substantial and indispensable guide for designers, engineers and policymakers committed to shaping the infrastructure and the society of tomorrow.

Open (Access) Text Book

Hans de Boer, Mark Voorendt, Maurice Harteveld, John Baggen

July 21, 2026

Introduction to Stochastic Hydrology

Hydrologic systems are both complex and extremely heterogeneous in time and space. As hydrological models are simplified versions of reality, their predictions are by definition subject to uncertainty. The field of stochastic hydrology focuses on quantifying this uncertainty along with prediction. This book aims to present an overview of the field of stochastic hydrology at an introductory level. A wide range of topics and methods will be treated, while each topic and method is only treated at a basic level: descriptive statistics; probability and random variables; hydrological statistics and extremes; random functions; time series analysis; geostatistics; forward stochastic modeling; and state prediction and Kalman filtering. The book can be used for a 10-15-week course at third-year undergraduate or first-year graduate level.

Document

Marc F.P. Bierkens

July 16, 2026

Handleiding AI-bewust onderwijsontwerp voor hbo-docenten

De handleiding AI-bewust onderwijsontwerp voor hbo-docenten helpt docenten en opleidingsteams om bestaand onderwijs opnieuw te ontwerpen voor een context waarin generatieve AI breed beschikbaar is. De centrale vraag is niet hoe AI kan worden tegengehouden, maar welke kennis, vaardigheden en professionele afwegingen studenten zelfstandig moeten blijven beheersen. De handleiding biedt een praktische herontwerpcyclus. Docenten onderzoeken eerst de invloed van AI op leeruitkomsten, opdrachten en toetsing. Daarna bepalen zij welk bewijs nodig is om beheersing zichtbaar te maken. Zij kiezen bewust welke rol AI krijgt en ontwerpen passende beoordelingscriteria, validatiemomenten, leeractiviteiten en begeleiding. Het leerdoel en de professionele oordeelsvorming van de student blijven steeds centraal staan. AI mag het denken ondersteunen, maar niet vervangen. Daarom verschuift de aandacht van alleen het eindproduct naar het denkproces, de gemaakte keuzes en de zelfstandige toepassing van kennis in nieuwe situaties. De methodiek sluit aan bij onder meer constructive alignment, backward design en het ADDIE-model. Praktijkvoorbeelden, ontwerpvragen en concrete werkvormen maken de aanpak direct toepasbaar. Zo ondersteunt de handleiding hbo-opleidingen bij het ontwikkelen van betekenisvol, valide en toekomstgericht onderwijs waarin studenten verantwoord leren handelen met én zonder AI.

Document

Hans Rader, Michael Hendriks

June 17, 2026

AgriLemma 2.0: A serious game for exploring dilemmas in agriculture

In AgriLemma, you are a farmer in Europe managing your own farm across 8 seasons. You grow six types of crops — potatoes, sugar beets, rapeseed, corn, wheat, and chickpeas — each requiring resources such as seeds, water, nutrients, and workers. Players must run, invest in, and improve their farm with sustainable technologies while balancing competing priorities and navigating uncertainties like weather events and pest attacks. The objective is to maximize overall farm health, which is determined by three dimensions: environmental health (positive ecological impact), social health (worker satisfaction), and financial health (farm profitability). Players must strategize across all three dimensions simultaneously — decisions that boost profit may come at an environmental cost, and vice versa. The game makes these trade-offs tangible, encouraging reflection on what sustainable farming really requires. ------------------------------ Learning objectives: · Experiment with different strategies — to operationalize and adapt an approach under pressure, and to reflect on how well it held up. · Expose students to issues of risk management — to plan, control, and explain the reasoning behind in-game choices relating to sustainability, soil conservation practices, integrated crop management, weeding, and pest management, and to learn how to respond when conditions change. · Experience the complexity of decision-making — to take into account weather and policy uncertainties, sustainability pressures, economic realities, and the broader context in which farm decisions are made. --------------------------------Practical information: · Format: Board game (physical/ print-and-play) · Players: 2-4 players (extendable to 8 by playing in teams of 2) · Duration: 3 hours, including onboarding and debrief · Level: Higher education / Stakeholder engagement · Language: English --------------------------------Credits: AgriLemma was originally designed as part of the WATERAGRI project. The second version, including a full redesign of the graphics, was developed with funding support from the TU Delft Open Science Programme course "Civic Engagement in Action: Empowering Researchers and Educators to Make an Impact". Game design: Dr. ir. Aashna Mittal - TU Delft, Faculty of Technology, Policy and Management Graphic design and illustration: Gracia Bovenberg-Murris and Michelle de Smit – TU Delft GameLab Note on image generation: The images in the tech cards and the border of the main game board were created using AI-generated imagery. The constructed wetlands card image is also AI-generated. All other cards and box art are hand-drawn or created in Adobe Illustrator. Note on usability: The print-and-play version of the game has been optimized for office printing.

Document

Aashna Mittal, Gracia Bovenberg-Murris, Michelle de Smit

June 16, 2026

Open Education menu

We created a ready-to-use menu with 17 different Open Education practices to be implemented in your education. With each practice turned into its own dish and recipe, you can easily see how the practice can be implemented, with its difficulty level and examples. The goal is to provide you with ideas and examples on how to implement Open Science practices into your education. Or use the menu as a starting point for conversations about open educational practices with colleagues! Already an expert? The menu can also be used for a 1-hour workshop on Open Educational practices for others interested in Open Science. Let the participants select a dish from the menu they are interested in, and help them to adapt the dish so they can turn their own ideas into real practices.

Presentation

Jeroen Bosman, Ilcan Çiftcibaşi, Anneke van der Dussen, Ruud Dielen, Marie-Louise Goudeau, Pim Huijnen, Susanne Kirchhoff, Marc van Mil, Hanne Oberman, Annelies Pieterman-Bos

June 15, 2026

DALE Toolbox Designing Accessible Learning Environments

This is the VU toolbox belonging to the course Designing Accessible Learning Environments

UniversityDocument

Hilde Remmers, Gabriel Peralta Alvarez

May 12, 2026

[ENG] Pressure cooker Transdisciplinarity – A practical approach

What – This pressure cooker is a practical approach to the how of transdisciplinary education. You’ll learn how you can embed transdisciplinary education. For whom – The format can be used (and adjusted) for a class of students (all levels; any group size) as well as a team of educational developers or teachers. Why – Guided training in, for instance, transdisciplinary education improves the actual working with, or teaching of, it. How long – In-class activities take two hours. Preparation at home takes up to 40 minutes. Please go to the pressure cooker about the theoretical approach (the why & what) if you first want to know more about the theory.

Presentation

Yvette Baggen, Anke Swanenberg

April 23, 2026

Curriculum Support Roadmap

The curriculum roadmap shows how the Teaching and Learning Centre – Project Office Learning Arrangements has visualised the adaptive support service for curriculum redesign. It focuses on the level of a BSc or MSc programme. This visual can be used to inspire a redesign process and to identify major building blocks to consider during this process.

Document

Anne Velthorst, Roos Köhler

April 15, 2026

The Evolution of Structural Glass Design

In this video, James O'Callaghan traces structural glass from its emergence in the mid‑1990s as a substitute for wood and steel through to its use in the present day. Glass offers unique transparency, strength, and stiffness, making it suitable for beams, floors, and columns. However, its purely elastic behavior provides no warning before failure. Key challenges center mainly on connections, where failure can occur without visible signs of overstress. Because bolted connections create such problematic local stresses, novel inserted connections were developed to preserve transparency and improve structural efficiency . Realised projects include Apple's Fifth Avenue cube (2006 and 2011), Zorlu in Istanbul, and the Steve Jobs Theater. Lastly, James O'Callaghan advises future engineers to approach glass with curiosity, not limiting it to windows or structural roles, but exploring its full potential. Despite its embodied carbon, glass remains vital for connecting people to light and the outdoors. Its future depends on fresh, naive eyes that ask what glass can do, not what it has done. The video was produced by the Open GLASSroom project. Special thanks to James O'Callaghan for contributing to the Open GLASSroom OER collection. The creation of these resources has been (partially) funded by the ERASMUS+ grant program of the European Union under grant no. 2022-1-DE01-KA220-HED-000089750. Neither the European Commission nor the project's national funding agency DAAD are responsible for the content or liable for any losses or damage resulting of the use of these resources.

Video

James O'Callaghan