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HBO/WO

MBO

8 april 2026

ACA-bot

ACA-bot is an engaging chatbot designed for Automated Conversational Assessment (ACA). Drawing inspiration from traditional oral exams, this text-based conversational agent transforms assessment into a dynamic learning experience. It supports both formative and summative evaluation by offering students personalised feedback and guidance at every step of their learning journey. The first ACA-bot prototype focuses on assessing students’ understanding of basic statistical concepts, but its flexible design allows for easy adaptation to a wide range of subjects and learning contexts. Through interactive dialogue, students can practise explaining ideas clearly under exam-like conditions, apply their knowledge to new and challenging questions, and refine their reasoning as they respond to follow-up prompts. They gain valuable insights into their own understanding, identify areas for improvement, and gradually build confidence for both oral and written assessments. For educators, ACA-bot offers a powerful way to scale oral examinations and enhance formative assessment without increasing workload. It automates parts of the assessment process, provides structured and actionable insights into student performance, and opens the door to more personal, interactive feedback at scale. By combining the strengths of conversational AI and educational assessment, ACA-bot turns evaluation into a collaborative, insightful process. It empowers students to think aloud, reason more effectively, and grow, while giving educators a smarter, more innovative way to understand and support learning. ACA-bot is een slimme en inspirerende chatbot die onderwijs en Artificial Intelligence samenbrengt. Geïnspireerd door het klassieke mondelinge examen tilt deze tekstgebaseerde gespreksagent Automated Conversational Assessment naar een nieuw niveau. Studenten krijgen via natuurlijke gesprekken directe, persoonlijke feedback en begeleiding, waardoor leren en toetsen samenvloeien in één boeiende ervaring. Het prototype van ACA-bot is ontwikkeld om kennis over statistiek te beoordelen, maar dankzij het flexibele ontwerp kan het systeem eenvoudig worden aangepast aan andere vakgebieden en toepassingen. Tijdens interactieve dialogen leren studenten helder uitleg geven, hun kennis toepassen op nieuwe vragen en hun redenering aanscherpen. Ze ontdekken waar hun begrip nog verdiept kan worden en groeien zichtbaar in zelfvertrouwen — waardevolle voorbereiding op zowel mondelinge als schriftelijke examens. Ook voor docenten biedt ACA-bot een slimme oplossing. Het maakt mondelinge toetsing schaalbaar, ondersteunt formatieve beoordeling via gesprek, en vermindert de werkdruk door delen van het beoordelingsproces te automatiseren. Bovendien geeft het gestructureerde inzichten in de voortgang en denkwijze van studenten, waardoor elke dialoog bijdraagt aan beter onderwijs. ACA-bot laat zien hoe Automated Conversational Assessment het leren persoonlijker, interactiever en effectiever maakt. Studenten denken hardop, verkennen hun eigen begrip, en verbeteren met vertrouwen — terwijl docenten op een innovatieve, datagedreven manier inzicht krijgen in hoe kennis werkelijk wordt begrepen.

App

Aki Härmä, Julie Bauer

15 december 2025

Systems Thinking Pressure Cooker

What – This pressure cooker is an introduction to systems thinking. This pressure cooker can be used to quickly familiarize a group of people with what the characteristics of a system are and have them experience various examples of using systems thinking to explore a topic or question. For whom – The format can be used (and adjusted) for a team of teachers that are not yet familiar with systems thinking, as well as a group of students (all levels; any group size). Why – Guided training in integration of systems thinking in a research project. How long – Approximately 2-2,5 hours in class and a 10 minutes pre-class video.

Presentatie

Programma Interdisciplinair Onderwijs

26 oktober 2025

Glass Sustainability: Reuse

In this video, Angelica Rota explains the concept and process of reusing architectural glass. Reusing glass panels or entire insulating glass units (IGUs) avoids the energy-intensive melting process of recycling, reducing CO2 emissions and preserving the material's quality. The process involves harvesting glass from buildings through selective deconstruction, followed by a complex disassembly to separate the glass from frames and spacers, and a critical quality assessment to sort the glass by its reuse potential. Despite its environmental benefits, glass reuse faces significant challenges. The disassembly of IGUs is complex and time-consuming, the logistics of handling large, brittle panels are difficult, and there is a lack of a strong market for secondary glass. Furthermore, collaboration across the supply chain, supportive regulations, and further research on issues like non-destructive quality testing are needed to make glass reuse a more viable and widespread practice. The video was produced by the Open GLASSroom project. Special thanks to Angelica Rota 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

Angelica Rota

24 oktober 2025

Measure Sustainability: LCA

In this video, Angelica Rota explains the Life Cycle Assessment (LCA) methodology and its specific application to glass products. The LCA is a standardized process that evaluates a product's environmental impact from raw material extraction ("cradle") to final disposal ("grave"). The assessment follows four phases: defining the goal and scope, conducting a life cycle inventory, assessing the environmental impacts, and interpreting the results. For construction products like glass, the life cycle is divided into modules covering production, use, end-of-life, and potential benefits from recycling. The findings of an LCA are often published in an Environmental Product Declaration (EPD), a verified document that communicates transparent environmental data. For flat glass, the manufacturing stage is the most environmentally intensive, contributing the vast majority to its global warming potential due to the high energy required to melt raw materials. Increasing the use of recycled glass cullet is a key strategy for reducing this impact, as it significantly lowers the energy consumption and associated CO2 emissions of the melting process. Understanding LCA is crucial for identifying environmental hotspots and driving more sustainable practices in glass production and use. The video was produced by the Open GLASSroom project. Special thanks to Angelica Rota 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

Angelica Rota

21 oktober 2025

Adaptive Expertise Assessment

Adaptive expertise verwijst naar het vermogen van individuen om hun kennis op innovatieve wijze te hercombineren om onbekende problemen op te lossen. Deze vaardigheid is essentieel voor interdisciplinair werken, en het effectief aanpakken van grote maatschappelijke uitdagingen. Wat Op deze pagina zijn te vinden: • Adaptive Expertise scenario’s. Deze kunnen ingezet worden om de adaptive expertise van studenten te meten. • Een link naar een voorbeeldassessment waarin de Adaptive Expertise scenario’s worden gebruikt. Binnenkort verschijnt op deze pagina een link naar een boekhoofdstuk waarin de theoretische achtergrond en toepassing van de Adaptive Expertise scenario’s worden toegelicht. Voor wie De materialen zijn bedoeld voor onderwijskundig adviseurs, beleidsmakers, curriculumontwikkelaars, docenten en onderzoekers in het hoger onderwijs, met name binnen interprofessionele en praktijkgerichte opleidingen. Waarom Het stimuleren van adaptive expertise draagt bij aan de ontwikkeling van veerkrachtige, reflectieve en lerende studenten en professionals. Door adaptive expertise te meten kunnen docenten beter inspelen op hoe studenten zich ontwikkelen als oplossers van maatschappelijke problemen buiten hun eigen kennisdomain.

Document

Yvette Baggen, Frank van Rijnsoever, Luc de Jongh

12 oktober 2025

Glass Sustainability: Reduce

In this video Mauro Overend and Rebecca Hartwell outline strategies to meet EU net-zero targets by addressing both demand-side and supply-side emissions. Demand-side approaches, influenced by designers, include using less material through efficient structural design, relaxing deflection limits to allow for thinner glass, and improving building energy performance with high-performance glazing. A key focus is increasing the use of recycled glass cullet, which can reduce melting energy and process emissions, though current post-consumer cullet use remains below 5%. Supply-side approaches involve the glass industry switching to low-carbon energy sources like hydrogen or electricity and exploring alternative raw materials to reduce process emissions. The video concludes that a combination of smarter design, increased recycling, and cleaner production is essential for reducing the glass sector's environmental footprint. The video was produced by the Open GLASSroom project. Special thanks to Mauro Overend and Rebecca Hartwell 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

Mauro Overend, Rebecca Hartwell

12 oktober 2025

Introduction to Environmental Sustainability in Glass

In this video Rebecca Hartwell outlines the two key factors for sustainable glass design: material efficiency and energy efficiency. Material efficiency focuses on reducing the environmental impact from production to end-of-life, guided by the "9R framework". Energy efficiency concerns the glass's role in reducing a building's operational energy for heating, cooling, and lighting. The video explains that while advancements like double glazing and low-E coatings have improved energy efficiency, they often create complex, multi-material assemblies that are difficult to disassemble and recycle. Consequently, unlike container glass, most post-consumer flat glass is rarely recycled and is often downcycled or landfilled. A whole life-cycle perspective, balancing embodied and operational carbon, is essential for a sustainable glass future. The video was produced by the Open GLASSroom project. Special thanks to Rebecca Hartwell 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

Rebecca Hartwell

12 oktober 2025

Glass Sustainability: Recycling

In this video Faidra Oikonomopoulou & Telesilla Bristogianni explain that while glass is 100% recyclable in theory, in practice, successful closed-loop recycling is largely limited to the container industry (bottles and jars). For other glass products, like architectural and automotive glass, recycling rates are very low, with most post-consumer waste being downcycled or landfilled. The main barriers are technical, such as contamination from coatings and chemical incompatibility between different glass types, and logistical, including the difficult disassembly of complex products like windows. The video contrasts the high recycling rate of glass bottles in the EU (76%) with the minimal recycling of post-consumer float glass from buildings (under 1%). Solutions proposed include investing in new recycling methods like casting, establishing better collection facilities, implementing tracking systems for building materials, and designing products for disassembly from the start. The video concludes that overcoming these barriers is key to unlocking the full potential of glass recycling. The video was produced by the Open GLASSroom project. Special thanks to Faidra Oikonomopoulou & Telesilla Bristogianni 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

Faidra Oikonomopoulou

1 oktober 2025

An analysis of the current developments and scenarios for the transition to a fossil-free energy society this century

This century, greenhouse gas emissions such as carbon dioxide, methane, and nitrogen oxides must be significantly reduced. Greenhouse gases absorb and emit infrared radiation that contributes to global warming, which can lead to irreversible negative consequences for humans and the environment. Greenhouse gases are caused by the burning of fossil fuels such as crude oil, coal, and natural gas, but livestock farming and agriculture are also to blame. In addition, deforestation contributes to more greenhouse gases. Of the natural greenhouse gases, water vapor is the main cause of the greenhouse effect, accounting for 90%. The remaining 10% is caused from high to low by carbon dioxide, methane, nitrogen oxides, chlorofluorocarbons, and ozone. In addition, there are industrial greenhouse gases such as fluorinated hydrocarbons, sulphur hexafluoride, and nitrogen trifluoride that contribute to the greenhouse effect too. Greenhouse gases are a major cause of climate change, with far-reaching consequences for the welfare of humans and animals. In some regions, extreme weather events like rainfall are more common, while others are associated with more extreme heat waves and droughts. Sea level rise caused by melting ice and an increase in forest fires are undesirable effects of climate change. Countries in low-lying areas fear that sea level rise will force their populations to move to the higher-lying areas. Climate change is affecting the entire world. An estimated 30-40% o f the carbon dioxide released by the combustion of fossil fuels dissolves into the surface water, resulting in an increased concentration of hydrogen ions. This causes the seawater to become more acidic, resulting in a decreasing of carbonate ions. Carbonate ions are an important building block for forming and maintaining calcium carbonate structures of organisms such as oysters, mussels, sea urchins, shallow water corals, deep sea corals, and calcareous plankton.

Open (Access) Tekst Boek

Folkert Koopman

1 oktober 2025

Sustainable EU Economy: an interactive Textbook for Business Students

Dear Reader, Welcome to Sustainable EU Economy. This book is more than a textbook—it is an invitation to explore how the European Union shapes business, society, and sustainability in today’s interconnected world. My hope is that it will inspire you to think critically, engage actively, and see how Europe’s vision for a climate‑neutral and inclusive future connects directly to your own journey as a student and professional. This book was created to guide you through one of the most dynamic and influential regions in the world—the European Union. With its single market of over 450 million consumers and policies that shape global standards, the EU is not only a trading bloc but also a laboratory for resilience, sustainability, and innovation. This book will help you see the EU not just as an institution, but as a living system that directly impacts business, society, and the environment. You will explore how Europe is responding to challenges such as climate change, digital transformation, and shifting geopolitics, and how these responses create opportunities for businesses and professionals like you. This textbook is not a static resource but an interactive digital reference, designed to evolve alongside the changing study of European integration and sustainability. By combining case studies, discussion prompts, and applied exercises with live seminar content and guest lectures, it adapts to new research, policy debates, and global challenges. In this way, you may explore the EU not only as a historical and political project, but also as a dynamic economic system that continually reshapes business strategy, trade, and innovation. About the Jean Monnet Chair in Sustainable EU Economy: Awarded by the European Commission to Dr. Beata Kviatek and hosted by Hanze University of Applied Sciences, the Jean Monnet Chair in Sustainable EU Economy represents the first such Chair at a Dutch university of applied sciences. Co‑financed by the Erasmus+ Programme and Hanze University, the Chair advances knowledge of the EU’s transition toward a climate‑neutral, resource‑efficient, and socially inclusive economy. It promotes excellence in teaching and research, integrates sustainability priorities into business education, and fosters dialogue among academia, policymakers, businesses, and society. By producing impactful studies on green finance, energy transition, and corporate responsibility, and by linking local initiatives with EU goals, the Chair provides a vibrant platform for debate and engagement on Europe’s sustainable future.

Open (Access) Tekst Boek

Beata Kviatek