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Zoekresultaten (43)

HBO/WO

MBO

19 augustus 2026

Game Development with Students

The project Game Development with Students introduces interested educators to an innovative teaching tool with practical insights from the international relations classroom. Game development with students is a specialized form of game-based and project-based learning. It incentivizes both student creativity and in-class student-teacher co-creation and enables a particularly participative and result-oriented approach to the subject matter. The method is thematically flexible enough to travel across different fields of study and is adaptable to different levels of complexity. To enable other educators to implement this innovative teaching tool, we develop instructional materials (an educators handbook as well as educational videos), providing both general information on the experiential, game-based learning theory undergirding the method as well as practical, hands-on tips and trick on how to implement it in different educational settings. In doing so, we address the important, interconnected educational challenges of the transferability and sustainability of teacher developed tools.

Document

Saskia Ruth-Lovell, Bertjan Verbeek, Jorn Weessies

1 augustus 2026

Open3DAnatomy - 3D model Inguinal and Femoral Canal and Surrounding Regions - English labels

3D model of the Inguinal and Femoral Canal and widely surrounding Regions. To see the posterior view of the inguinal area, as seen during laparascopic inguinal hernia approach, in the menu, click the groups 'Posterior trunk part' and 'Posterior thigh part'. This will hide all structures in the back, en bloc. Surgically relevant structures that are present include: inferior epigastric artery to obturator artery connection (corona mortis), lacunar ligament (Gimbernath), iliopubic tract, inguinal triangle (Hesselbach's), iliohypogastric and ilioinguinal nerves, etc.. Overlays (green transparent) are used to show*** structures with specific names that are part of larger structures. For instance: lacunar ligament, reflected inguinal ligament, iliopubic tract, femoral sheath, femoral canal, femoral ring, deep and superficial inguinal rings, inguinal (Hesselbach's) triangle, conjoint tendon, medial and lateral crus of superficial inguinal ring. The source model was created by the AnatomyTOOL Open3D Model Project.* Anatomical content: O. Paul Gobée, MD, anatomist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (muscles of abdomen and diaphragm) Prof. Marco C. DeRuiter, PhD, anatomist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (pelvis) Jan (J.) Kooloos, PhD, anatomist em., Radboud University Nijmegen, dept. Anatomy, Netherlands (muscles of lower limb) Prof. em. Koos-Jaap (K.J.) van Zwieten, PhD, anatomist, Hasselt University, dept. of Anatomy, Belgium (nerves and blood vessels of lower limb review) Prof. dr. Evie (E.) Vereecke, PhD, anatomist, KU Leuven Campus Kulak, Dept of Development and Regeneration, Belgium (muscle review of lower limb) Prof. em. George J.R. Maat, MD, PhD, anatomist, forensic anthropologist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (bones and articulations) 3D modeller: Eungyeol Lee, BFA, MSI, medical artist, 3D modeller, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands Web model: Daniël Jansma, MSc, anatomist, e-learning developer, Leiden University Medical Center, Netherlands This model is a further elaboration of the 3D models by the BodyParts project, and the Z-Anatomy project.Free to use if you follow the CC BY SA license.

Printbaar object

Paul Gobée, Marco C de Ruiter, Jan Kooloos, Koos-Jaap van Zwieten, Evie Vereecke, George J.R. Maat

5 juli 2026

Open3DAnatomy - 3D model Inguinal and Femoral Canal and Structures in Inguinal and Femoral Hernia Surgery - English labels

3D model of the Inguinal and Femoral Canal and Structures relevant for Inguinal and Femoral Hernia Surgery. This model focuses on the structures relevant to understand the inguinal canal and femoral canal, including the structures relevant in surgery for inguinal and femoral hernia's. Surgically relevant structures that are present include: inferior epigastric artery to obturator artery connection (corona mortis), lacunar ligament (Gimbernath), iliopubic tract, inguinal triangle (Hesselbach's), iliohypogastric and ilioinguinal nerves, etc.. Overlays (green transparent) are used to show structures with specific names that are part of larger structures. For instance: lacunar ligament, reflected inguinal ligament, iliopubic tract, femoral sheath, femoral canal, femoral ring, deep and superficial inguinal rings, inguinal (Hesselbach's) triangle, conjoint tendon, medial and lateral crus of superficial inguinal ring. Most of these overlays are initially hidden, but they can be shown via the menu. This model contains a selection of the structures that are present in the model 'Open3DAnatomy - 3D model Inguinal and Femoral Canal and Surrounding Regions - English labels' The source model was created by the AnatomyTOOL Open3D Model Project. Anatomical content: O. Paul Gobée, MD, anatomist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (inguinal and femoral canal, muscles of abdomen) Prof. Marco C. DeRuiter, PhD, anatomist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (pelvis) Jan (J.) Kooloos, PhD, anatomist em., Radboud University Nijmegen, dept. Anatomy, Netherlands (muscles of lower limb) Prof. em. Koos-Jaap (K.J.) van Zwieten, PhD, anatomist, Hasselt University, dept. of Anatomy, Belgium (nerves and blood vessels of lower limb review) Prof. dr. Evie (E.) Vereecke, PhD, anatomist, KU Leuven Campus Kulak, Dept of Development and Regeneration, Belgium (muscle review of lower limb) Prof. em. George J.R. Maat, MD, PhD, anatomist, forensic anthropologist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (bones and articulations) 3D modeller: Eungyeol Lee, BFA, MSI, medical artist, 3D modeller, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands Web model: Daniël Jansma, MSc, anatomist, e-learning developer, Leiden University Medical Center, Netherlands This model is a further elaboration of the 3D models by the BodyParts project, and the Z-Anatomy project. Free to use if you follow the CC BY SA license.

Website

O. Paul Gobée, Eungyeol Lee, Daniël Jansma, BodyParts Project, Z-Anatomy project

14 juni 2026

Open3DModel -Muscles of posterior compartment of the leg - English labels

3D model of the muscles of posterior compartment of the leg (lower part of lower limb) and their innervation. Individual structures can be hidden or shown, the model can be rotated, zoomed, panned. Version: June 2026 Based on 3D model of the lower limb. This derivative model was created by Prof. em. George J.R. Maat, MD, PhD, Eungyeol Lee, BFA, MSI and Daniël Jansma, MSc (full details listed below). The source model was created by the Open3D Project. Anatomical content: Jan (J.) Kooloos, PhD, anatomist em., Radboud University Nijmegen, dept. Anatomy, Netherlands (muscles) Prof. dr. Evie (E.) Vereecke, PhD, anatomist, KU Leuven Campus Kulak, Dept of Development and Regeneration, Belgium (muscle review) Eungyeol Lee, BFA, MSI, medical artist, 3D modeller, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (nerves and blood vessels) Prof. em. Koos-Jaap (K.J.) van Zwieten, PhD, anatomist, Hasselt University, dept. of Anatomy, Belgium (nerves and blood vessel review) Prof. em. George J.R. Maat, MD, PhD, anatomist, forensic anthropologist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (bones and articulations) 3D modeller: Eungyeol Lee, BFA, MSI, medical artist, 3D modeller, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands Web model: Daniël Jansma, MSc, anatomist, e-learning developer, Leiden University Medical Center, Netherlands Contributions from: Emily (E.C.A.) Lowes, MSc, medical artist, 3D modeller, UK The Open3DModel was based on the predecessors: BodyParts and Z-Anatomy. All Open3Dmodels can be found at https://anatomytool.org/open3dmodel-learn.

Website

Open3D project, Prof.em George J.R. Maat, Eungyeol Lee, Daniël Jansma, Jan Kooloos, Prof Evie Vereecke, Prof. KoosJaap van Zwieten

16 januari 2026

Open3DAnatomy - 3D model Inguinal and Femoral Canal and Surrounding Regions - English labels

3D model of the Inguinal and Femoral Canal and widely surrounding Regions. To see the posterior view of the inguinal area, as seen during laparascopic inguinal hernia approach, in the menu, click the groups 'Posterior trunk part' and 'Posterior thigh part'. This will hide all structures in the back, en bloc. Surgically relevant structures that are present include: inferior epigastric artery to obturator artery connection (corona mortis), lacunar ligament (Gimbernath), iliopubic tract, inguinal triangle (Hesselbach's), iliohypogastric and ilioinguinal nerves, etc.. Overlays (green transparent) are used to show structures with specific names that are part of larger structures. For instance: lacunar ligament, reflected inguinal ligament, iliopubic tract, femoral sheath, femoral canal, femoral ring, deep and superficial inguinal rings, inguinal (Hesselbach's) triangle, conjoint tendon, medial and lateral crus of superficial inguinal ring. The source model was created by the AnatomyTOOL Open3D Model Project. Anatomical content: O. Paul Gobée, MD, anatomist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (muscles of abdomen and diaphragm) Prof. Marco C. DeRuiter, PhD, anatomist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (pelvis) Jan (J.) Kooloos, PhD, anatomist em., Radboud University Nijmegen, dept. Anatomy, Netherlands (muscles of lower limb) Prof. em. Koos-Jaap (K.J.) van Zwieten, PhD, anatomist, Hasselt University, dept. of Anatomy, Belgium (nerves and blood vessels of lower limb review) Prof. dr. Evie (E.) Vereecke, PhD, anatomist, KU Leuven Campus Kulak, Dept of Development and Regeneration, Belgium (muscle review of lower limb) Prof. em. George J.R. Maat, MD, PhD, anatomist, forensic anthropologist, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands (bones and articulations) 3D modeller: Eungyeol Lee, BFA, MSI, medical artist, 3D modeller, Leiden University Medical Center, dept. Anatomy & Embryology, Netherlands Web model: Daniël Jansma, MSc, anatomist, e-learning developer, Leiden University Medical Center, Netherlands This model is a further elaboration of the 3D models by the BodyParts project, and the Z-Anatomy project. Free to use if you follow the CC BY SA license.

Website

O. Paul Gobée, Eungyeol Lee, Daniël Jansma, BodyParts Project, Z-Anatomy project

17 december 2025

Onderwijs & AI Module voor Docenten

Generative Artificial Intelligence (genAI), ofwel generatieve kunstmatige intelligentie, maakt een snelle groei door. De nieuwste generatie genAI tools is zo goed dat het steeds moeilijker wordt te onderscheiden of een tekst door een mens of AI is geschreven. De ontwikkeling van genAI heeft dan ook een grote impact op de maatschappij en daarmee ook op het onderwijs. Daarnaast kan genAI onderdeel uit gaan maken van de toekomstige werkpraktijk van vele studenten. De realiteit is dat deze technologie er is en we zullen ons ertoe moeten verhouden. Hoewel de eindverantwoordelijkheid voor het gebruik van genAI ligt bij de student zelf, hebben wij de verantwoordelijkheid om hen te helpen hier op een verantwoorde manier mee om te gaan. Deze module beoogt hierbij te ondersteunen. Na het doorlopen van deze module ben je bekend met: Wat genAI is. Wat de impact van genAI is op onze wereld. De juridische kaders van genAI. De relatie tussen genAI en academische waarden en integriteit. De manieren waarop studenten genAI kunnen gebruiken en wat dat kan betekenen voor academisch onderwijs. De impact die genAI kan hebben op jouw onderwijs. Elk van de bovenstaande leerdoelen hoort bij één hoofdstuk van deze module. Deze module is gebaseerd op de module AI geletterdheid van de Rijksuniversiteit Groningen. De module is zowel in het Nederlands als het Engels beschikbaar en wordt hier aangeboden als Brightspace package. Dit zou ook in Canvas geïmporteerd kunnen worden.

Document

Steven Trooster, Max Moeskops

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

14 september 2025

GenAI Literacy presentations

These PowerPoints are designed to provide teachers the means to improve their students' AI literacy. The presentation is divided into seven themes: 1: What is Generative AI? 2: How does Generative AI work? 3: Prompting 4: GenAI and hallucinations (in development) 5: GenAI and bias 6: GenAI and sustainability 7: Gen AI and privacy/ bias Each topic includes a section focusing on traditional knowledgetransfer and a simple, active learning method. This material is licensed under CC BY-NC-SA 4.0. Created by the Teaching and Learning Centre (TLC) of UvA Centraal in collaboration with the TLC of the Faculty of Medicine.

Presentatie

Jesper Pool, Remco Jongkind, Sophie van Dijke, Job Radelaar, Frans Aris, Bjarne de Beer, Palina Vasilyeva, Ivar Kolvoort

1 september 2025

Economics in the Digital Age: Insights and Applications

This book serves as an essential resource for both undergraduate and graduate programs due to its comprehensive approach to digital economics: Theoretical Integration: It integrates classical economic theories with the digital economy, demonstrating how traditional principles apply to new digital realities. Practical Frameworks: It provides actionable insights for analyzing digital market trends and monetization strategies, relevant for students, managers, and business professionals alike. Case Studies and Real-World Applications offer concrete examples of digital transformations, making complex concepts more accessible and useful for research and coursework. Advanced Analytical Tools: The book helps students develop the analytical skills needed to evaluate digital business strategies, market dynamics, and the broader economic impact of digital technologies. For professionals, this book provides strategic guidance on navigating the challenges and opportunities of the digital economy. By understanding the core economic principles behind digital business models, managers can make informed decisions on everything from digital marketing to product development, all while anticipating and mitigating risks like cybersecurity threats or regulatory changes.

Open (Access) Tekst Boek

Shilpa Samplonius-Raut

1 juni 2025

Week 4: Creating an Implementation Plan

Around an engaging video, a lesson has been built with specific learning objectives, activities, and supporting materials for students. The focus is on a key phase in the case-solving cycle: turning strategy into action through effective implementation. The instructors introduce a six-step framework that guides students in building a clear, realistic plan to bring strategic solutions to life. From setting SMART goals and allocating resources (using the MMM framework) to creating timelines, assigning responsibilities, and assessing risks, this lesson shows how to structure implementation at different levels. Using a case example, students see how thoughtful planning ensures feasibility and alignment across business functions. By the end of the lesson, students are equipped to translate ideas into impact with a well-structured roadmap.

Document

Hans van Oudheusden, Britta Stoelinga