Maastricht University, is a truly European university with a global outlook – one of the most international universities on the European continent. More than 56% of our 20,500 students studying at our six faculties and schools are international students, originating from other EU countries than the Netherlands, or from outside Europe. About 45% of our staff is non-Dutch. Maastricht University, the youngest public university in the Netherlands, is located in the Southern tip of the Netherlands, on the border with Belgium and close to Germany, France and many other countries. We are 200 km from Amsterdam and just over 100 km from Brussels and Cologne and some 300-400 km from Frankfurt, Paris and London. The study experience at Maastricht University is therefore not only a Dutch experience but a truly European experience!
Maastricht University offers a full range of academic programs, from pre-entry courses to Bachelor and Master programs and PhD studies. All programs, with just a few exceptions, are fully taught in English and open to students from anywhere in the world.
Maastricht University is also internationally reputed for its innovative educational approaches. Our interactive approach to learning puts you and your fellow students in the driver’s seat. You team up in small, international groups to solve complex problems using real-life cases, with an academic instructor as a guide. In our education you will learn and understand theoretical knowledge, but also how to apply knowledge in practical contexts. Also we pay a lot of attention to the development of practical skills, like writing, presenting, debating and other academic skills, and cooperation, attitude, ethics, etc. We value the nurturing of global citizenship in all our programs. Moreover, our international classroom brings together people from all over the world who have different backgrounds and perspectives. It is these very differences that enrich your learning experience at UM and make it unique.
Maastricht University has been consistently ranked high in international rankings; in the Times Higher Education Ranking of young universities (less than 50 years old) it was again globally ranked 6th in 2021.
The town of Maastricht, the venue of our university, is a beautiful place located on both side of the river Meuse, spanned by the famous medieval Servaes bridge. It is one of the oldest cities in North-Western Europe, founded in Roman times, and dotted with monumental buildings covering two millennia of history. The town is popular destination for visitors from near and far. It is not a large city however, and thanks to the presence of the university and other educational institutions it is a young, international and dynamic community. Maastricht is also a safe place.
Academic: GPA of 3 or above on their studies to date
English Language:
– IELTS: 6.5
– TOEFL iBT: 90 (speaking minimum scores 24 and other components minimum 22)
– Duolingo English Test: 105 (speaking minimum score 30 and other components minimum score 25)
01 September 2024 – 28 February 2025
Applicants 2022
Applicants : 393 students
GPA : 3.04-4.00
TOEFL iBT Score : 64-115
IELTS Score : 6.5-8
Duolingo English Test Score : 70-150
Awardees 2022
Awardees : 20 students
GPA : 3.25-3.95
TOEFL iBT Score : –
IELTS Score : 8
Duolingo English Test Score : 140-150
Applicants 2023
Regular Applicants : 192 students
GPA : 3.02-4.0
IELTS Score: 5.5-8.0
Duolingo English Test Score : 70-160
Awardees 2023
Regular Awardees : 18 students
GPA : 3.2-4.0
IELTS Score: –
Duolingo English Test Score : 125-155
Available Courses
Applicants must choose the courses within one Program only (not allowed to mix courses from different Programs)
Computer Science: Artificial Intelligence
- First Period
We introduce the field of Game Theory. Game Theory is the mathematical study of problems, called games, that involve two or more decision makers, called players, who each have their own individual preferences over the possible outcomes. In a game, each player always aims to maximize his individual payoff and chooses his actions accordingly. These actions may be probabilistic or deterministic, depending on the situation. Meanwhile he reasons logically about actions that might be taken by the other players. A basic difference exists between strategic and non-strategic models. Both types of models and their solution concepts will be discussed. Issues like value, fairness, manipulations, threats, optimality and rationality will be addressed.
Recommender systems play an important role in helping to mediate many of our everyday decisions and choices, including the music we listen to, the news that we read, and even the people that we date. They do this by learning from our past interactions, inferring our interests and documenting our preferences. To make the right suggestions at the right time recommender systems must not only understand our preferences but also our current needs and perhaps our immediate intent. Thus, the core focus of most recommender systems is devoted to profiling users and matching items based on these profiles and current context.
Much of the research to date on recommender systems has focussed on the engineering and evaluation of core recommendation algorithms. Researchers have developed a variety of approaches to harness different forms of preference data in the pursuit of more accurate recommendations. For example, researchers have used simple ratings for collaborative, rich meta-data for content-based methods, and even the opinions and sentiment expressed within user-generated reviews.
When evaluating recommender systems, there has been a heavy emphasis on measuring the accuracy of suggestions, or the error of predictions. However, in practice it is important to consider evaluation metrics beyond accuracy, such as diversity, novelty, and serendipity. This in turn has led to increased attention being given to the nature of the interactions between users and recommender systems, and the influence that the user interface and interaction style can have on user behaviour and the overall recommendation experience. This course focuses on:
Non-personalized and Stereotype-based Recommender Systems
Classical recommender systems algorithms, e.g., Content-based Filtering, Collaborative-based Filtering
Offline Evaluation e.g., protocols, criteria, metrics
User-centered evaluation
Interfaces and interaction in Recommender systems, e.g., explanations and conversational recommender systems
Ethics, bias, and fairness in recommender systems
Advanced methods, e.g., Matrix Factorization, Hybrid recommender systems, Contextual Recommender systems
Students work on a project assignment in small groups of about six students. The group composition stays the same for the whole project and is announced before the project opening in period 1.4. The students are guided through the project by a fixed tutor. The project assignment is divided into three subtasks (one per period) and is strongly related to the content of the courses from period 1.4 and 1.5. In period 1.4, after receiving the assignment for the whole project at the end of week 5, the students work full-time on the project in week 6. In this week, each group meets the tutor twice. In period 1.5, the students continue working on the project, while also having to attend the courses of that period. They meet their tutor approximately once a week. In period 1.6, the students work three weeks full-time on the project and meet their tutor twice a week.
At the beginning of period 1.5 and 1.6, the students have to hand in a planning for the current phase. At the end of each period, the students have to give a presentation and the source code, presentation and an overview of who did what need to be uploaded to Canvas. While the presentations at the end of period 1.4 and 1.5 are in front of the examiners and the tutors, the presentations at the end of period 1.6 will additionally be in front of the fellow students. In period 1.6, they furthermore have to hand in a report and attend a product and report examination.
- Second Period
Parallel programming introduces the students to the paradigm of parallel
computing on a computer. Nowadays almost all computer systems include so-called multi-core chips. Hence, in order to exploit the full performance of such systems one needs to employ parallel programming.
This course covers shared-memory parallelization with OpenMP and java-Threads as well as parallelization with message passing on distributed-memory architectures with MPI. The course starts with a recap of the programming language C followed by a brief theoretical introduction to parallel computing. Next, the course treats theoretical aspects like MPI communication, race conditions, deadlocks, efficiency as well as the problem of serialization. This course is accompanied by practical labs in which the students have the opportunity to apply the newly acquired concepts. After completing this course students will be able to write parallel programs with MPI and OpenMP on a basic level, and deal with any difficulties they may encounter.
Machine learning is a major frontier field of artificial intelligence. It deals with developing computer systems that autonomously analyse data and automatically improve their performance with experience. This course presents basic and state-of-the-art techniques of machine learning. Presented techniques for automatic data classification, data clustering, data prediction, and learning include Decision Trees, Bayesian Learning, Linear and Logistic Regression, Recommender Systems, Artificial Neural Networks, Support Vector Machines, Instance-based Learning, Rule Induction, Clustering, and Reinforcement Learning. Lectures and practical assignments emphasize the practical use of the presented techniques and prepare students for developing real-world machine-learning applications.
- First/Second/Third Period
Students work on a project assignment in small groups of about six students. The group composition stays the same for the whole project and is announced before the project opening in period 1.4. The students are guided through the project by a fixed tutor. The project assignment is divided into three subtasks (one per period) and is strongly related to the content of the courses from period 1.4 and 1.5. In period 1.4, after receiving the assignment for the whole project at the end of week 5, the students work full-time on the project in week 6. In this week, each group meets the tutor twice. In period 1.5, the students continue working on the project, while also having to attend the courses of that period. They meet their tutor approximately once a week. In period 1.6, the students work three weeks full-time on the project and meet their tutor twice a week.
At the beginning of period 1.5 and 1.6, the students have to hand in a planning for the current phase. At the end of each period, the students have to give a presentation and the source code, presentation and an overview of who did what need to be uploaded to Canvas. While the presentations at the end of period 1.4 and 1.5 are in front of the examiners and the tutors, the presentations at the end of period 1.6 will additionally be in front of the fellow students. In period 1.6, they furthermore have to hand in a report and attend a product and report examination.
Applied Mathematics: Artificial Intelligence
- First Period
This course introduces students to fundamental concepts of databases with a focus on relational database systems. Students will learn how to design, implement and optimize a relational database. The course provides a comprehensive study of data modeling, data description languages, and query facilities such as relational algebra and SQL. Students will also be exposed to the internal workings of database management systems with an overview of topics such as concurrency, recovery, indexing, and triggers. The course will cover current topics related to managing Big Data using alternate data models such as NoSQL. The students will apply their knowledge on these topics in designing and implementing a database system as a part of a group project.
Most of the information available on the World Wide Web (WWW) is not directly understandable for computers. For instance, web pages are designed for human readability. Computer programs have difficulty in interpreting the information presented on web pages. The focus on human readable information introduces restrictions on what computer programs can do to support human users in tasks such as: finding information, buying goods, making travel plans.
The Semantic Web should eliminate these restrictions by separating the content of what is presented on a web page from the way it is presented. In recent years, the focus has shifted to providing data, independent of webpages (for example: Linked Open Data (LOD)
Ontologies are used to provide a shared conceptualization of information. Ontologies form the basis of the Semantic Web, Knowledge Based System, Databases, etc., and they play an important role in data exchange and interoperability in many domains. Ontologies are applied in the bio-medical domains, in data mining applications, in Linked Open Data (LOD), in websites based on semantic technology, etc.
Since ontologies are intended to be shared between different systems, defining an ontology is a challenging task.
This course will focus on the standards the World Wide Web Consortium (W3C) is defining in order to realize the Semantic Web. The course also addresses the underlying knowledge representation formalisms of the current semantic web standards. Moreover, the course will address the engineering principle of crating an ontology. Note that the course does not address standards for making websites.
- Second Period
Logics form the formal foundation of knowledge representation and reasoning, which is a fundamental topic in Artificial Intelligence. Logics play a role as an analysis aid and as a knowledge-representation formalism. Moreover, the semantics of logics enables us to evaluate the intended meanings of knowledge representation formalisms, and the correctness and completeness of reasoning processes.
Humans make assumptions in their day-to-day reasoning. Examples of reasoning with assumptions are: common sense reasoning, model-based diagnosis, legal argumentation, agent communication and negotiation, and so on and so forth. The assumptions humans use in their reasoning may be incorrect in the light of new information. This implies that conclusions may have to be withdrawn in the light of new information. Therefore this form of reasoning is called non-monotonic reasoning and the underlying logics are called non-monotonic logics.
The course will cover model-based diagnosis as an application of reasoning with assumption, standard logics extended with defeasible rules, argumentation systems, the semantics of reasoning with assumptions and defeasible rules, and closure properties of the reasoning systems.
Central in this course is how, based on available data, new knowledge and information can be obtained using reasoning processes. The course will be supported by tutorials, in which the acquired techniques can be put into practice by using Prolog. The following four techniques are discussed:
(1) Reasoning using logic: syntax, semantics, and inference in first-order logic, situation calculus, forward and backward reasoning, completeness, logic programming with Prolog.
(2) Problem solving using search: problem types, blind-search methods, informed-search methods, comparison of search methods, games as search problems, minimax, alpha-beta pruning, Monte Carlo Tree Search, chance games, constraint satisfaction problems.
(3) Planning: planning in situation calculus, representation of states, goals and operators, state space and plan space, algorithms for classic planning.
(4) Reasoning with uncertainty: uncertainty and probability theory, conditional probability, the Rule of Bayes, semantics of belief networks, exact and approximate inference in belief networks.
MSP (Maastricht Science Program)
- First Period
This course aims to introduce the students to the core of physical chemistry – thermodynamics. First, it introduces classical thermodynamics and applies it to macroscopic systems. Subsequently, statistical thermodynamics is introduced and linked to the main thermodynamic quantities. Students will learn throughout the course how to apply thermodynamics to analyse the physical and chemical properties of gases, solutions and solids, with a focus on mathematical derivations of formulas. The course covers, inter alia, the laws of thermodynamics; chemical potentials; phase diagrams; mixing of solutions; properties of gases; statistical thermodynamics and the derivation of internal energy, enthalpy, entropy, equilibrium constants.
This course is an intensive introduction to programming in Java that assumes no prior programming experience. It explores all aspects of modern programming by means of lectures and hands-on practical lab sessions.
The course starts with the basics of computer science and computer programming. After a short introduction to computer organization, the principles of structured programming in Java are presented. Main topics covered are: data types and variables, methods, conditional statements, loops, recursion. Finally, the course introduces the object-oriented features of Java and their usage for program design. All these concepts have to be understood both from their theoretical perspective and their practical applications.
Animals are everywhere, on land, in water and in the air. They comprise an extremely diverse kingdom, with all species being a mixture of shared and unique biological characteristics. These characteristics are a product of evolutionary history and adaptation to particular features of the abiotic and biotic environment. In this course you will focus on the major groups within the animal kingdom, what defines them, how they are organised and how they are related to each other; you will also examine the specific adaptations of certain animals in more depth. The question “What is an animal?” will be considered as will the issue of how animals are grouped and related to each other. This will be done in the context of the major phyla, their defining morphological, anatomical and physiological features and the sorts of adaptations and behaviours that they exhibit. You will also examine certain adaptations such as bright colouration, feeding or parental care in greater depth, using particular animal groups as a source of examples.
This course begins with an overview of information available by studying the spectrum of light from objects within our universe. We then look at our own star, the Sun, covering what humanity has learned thus far about its interior structure/composition. Next, we study properties of other stars including: how they form, their ‘lifetimes’, ‘evolution’ & the many remnants they leave behind.
The course discusses the principles of genetics with application to the study of biological function at the level of molecules, cells, and multicellular organisms, including humans. The topics include: structure and function of genes; chromosomes and genomes; biological variation resulting from replication and recombination, mutation and selection; DNA repair and the genetic basis of disease inheritance.
A good researcher not only knows a lot about their specific topic of study; they are also able to communicate their findings clearly and concisely to others. Advanced Academic Skills will improve your ability to do just this by focusing on you prose style, (written) organization, and argumentation. The course picks up where PRA1102 left off by asking you to develop your writing for various genres, including the Abstract, Literature Review, Research Proposal, and Research Paper. At the same time, you will collaborate with your classmates for peer review exercises and didactic presentations.
By the end of the course, you will be better prepared to complete your BTR thesis writing and participate in a scientific/academic career beyond MSP. Thus, Advanced Academic Skills is particularly suitable for students who are generally interested in the process of scientific communication and/or intend to continue their science education beyond the undergraduate level.
- Second Period
Biochemistry is considered the mother of all Life Sciences. Understanding Biochemistry will facilitate learning of more specialised Life Sciences such as Molecular and Cell Biology. This course will present the essentials of Biochemistry during 6 lectures and 10 tutorials. We will cover the structures, functions and interactions of the biomacromolecules, including proteins, lipids, carbohydrates, DNA and RNA, which perform many of the activities associated with life. We will provide insight in the specificity and action of enzymes, the biocatalysts of the cell. Further, we will explain metabolic pathways that result in the generation of ATP, the major energy currency of the cell.
Finally we will present recent biochemical understandings on genome editing that revolutionize treatment of diseases at the level of correcting mutated genes (gene therapy).
Today it is acknowledged that achieving sustainable development at the local, regional and global scale is one of the greatest challenges for the 21st century. But in many cases the term ‘sustainable development’ functions as little more than a vacuous buzzword. So what does sustainable development actually mean? How unsustainable is our global society at the moment? Are we contributing to irreversible climate change? Are we already passing dangerous global environmental tipping points? Why are humans acting in such unsustainable ways? And, of course, what are sustainable ways forward?
This course aims to enhance student’s understanding of ‘sustainable development’, based on the notion that human development can only be sustainable when environmental boundaries are respected. The course introduces the main concepts, ideas and theories related to the term sustainable development. Students will gain insights into (the limits to) humanity’s immense impact on the earth’s systems and the underlying drivers of these unsustainable trends. Furthermore, sustainable development requires an understanding that inaction has consequences. Students will explore ideas about how to achieve a more sustainable society. As part of the examination students will link theories/concepts/ideas discussed in the course to a self-selected case study (a promising way forward towards sustainability) in a poster presentation.
This course is situated in the field of Science and Technology Studies (STS) and analyses the social and cultural complexities involved in the production and dissemination of scientific knowledge. The course aims to clarify how social, cultural, political, or economic forces play inextricable roles in the practice and production of Western science. To gain insight in the science-society relation we analyse for example, the historical context in which Einstein developed his Theory of Relativity. In addition, insights from cultural anthropology allow us to discuss how ethnicity, gender and social class affects scientific practices and its output. Debates about the bell-shape of distributions, cell structure and the value of the IQ-test act as emperical exemplars. An analysis of the science-society relationship cannot ignore the digital world we live in. Therefore the course will also pay attention to Big Data, ‘fake-facts’ and the role of Wikipedia, Google Scholar, and ChatGPT in the production of knowledge. Beside the wider socio-economic context in which science operates, the course also takes into account the immediate context in which scientific facts are established (i.e. the lab). This involves not only the involvement of industry but also the way credibility affects the daily business of doing research. It is along these lines that we enter the world of the scientists.
The study of optics begins with a geometrical approach, modelling light as rays which can travel according to specific rules. Essentially optics treats all rays as travelling in straight lines until such a point that they reach an optical device such as a mirror, lens or obstacle. Based on these principles, we can assess the behavior of optical devices (telescopes, microscopes, cameras for example) but also begin to understand optical phenomena which occur in everyday life (i.e. rainbows etc.). After the geometrical approach, we will move forward to physical optics where light is considered to be a wave. In this part more complex phenomena like polarization, interference, diffraction and their application (e.g. non-reflective coatings, Michelson interferometer,…) will be described.
The aim of this skill is for participants to understand what physics means by performing instructive physical experiments that reveal fundamental physical principles, and to attain a level of dexterity with experimental devices. Physics is an empirical science and not a mere collection of mathematical laws. In this sense, this practical is an appropriate counterpart for the more theoretic and mathematical physics courses. Moreover, the aim of this training is to improve your ability to report and summarize your experimental work in a few pages. The skill consists of a collection of 7 different experiments. Students cooperate in pairs and each week performs a different experiment. Each week requires the participants to learn the theory, design and plan an appropriate experiment, collect and analyse their data to understand the physical principles contained within. These experiments are supplemented with a full day of training at the beginning regarding various “tools” used in practical physics, which can be applied during this skill.
Capita Selecta is unique and addresses trending topics in health, life science, the nano-biotechnology or the nano-imaging field. For example, it may cover a recent virus outbreak or a profound breakthrough in biotechnology, such as stem cell derived miniaturized organs (organoids) and CRISPR/Cas9 gene editing both leading to transformative therapies, or the latest Nobel prize in Chemistry, Physiology or Medicine. Students will quickly explore a ‘hot topic’. Students will acquaint themselves with the theoretical basis of the subject. If possible, they will critically investigate news coverage (from scientific papers to popular newsflashes) and discuss the media reports.
- Third Period
Sustainability Program
- First Period
Central to the pursuit of sustainable development is the integrated consideration of economic, social and environmental aspects. However, traditional scientific paradigms are based on reductionist thinking, which tries to understand things by taking them apart. In sustainability science, systems thinking is key to address the complex and interdependent nature of our coupled social-ecological systems.
Many people recognize the need to transition to a sustainable and resilient society, but this requires new ways of thinking about and addressing complex problems. Widespread adoption of systems thinking is believed to be a precondition for making real progress towards sustainability, but few understand its’ importance. Systems thinking is a process for understanding the interrelationships among the key components of a system.
This course will introduce students to systems thinking and how it can be applied to understand sustainability problems and challenges of coupled social-ecological systems. Students will also become acquainted with (quantitative) sustainability impact assessment. After familiarizing themselves with key concepts, students will explore systems thinking across two areas:
• Earth systems and coupled social-ecological systems: Students will explore biogeochemical cycles; climate systems feedbacks and climate tipping points; interlinkages between the climate systems and our food systems; resilience and adaptive sustainable food systems.
• Rethinking production systems: Students will explore the transition to a biobased and circular economy through topics like materials from renewable resources, renewable energy systems, plastic
Our health is (or should be) a key component in the sustainable development debate. For example, the first principle of the seminal 1992 United Nations Rio Declaration on Environment and Development states that “Human beings are at the centre of concerns for sustainable development. They are entitled to a healthy and productive life in harmony with nature”. Similarly, the World Health Organization argues that ‘sustainable development cannot be achieved when there is a high prevalence of debilitating illnesses, and population health cannot be maintained without ecologically sustainable development’. Throughout the course, students will reflect on the (central) role of human health in the sustainable development debate.
In the past the exploitation of the environment has benefited our health, for example by increasing food production to feed billions of people. However, the exploitation and contamination of the environment is now beginning to threaten our health. Hence, the same natural systems that have benefited us for so long (by providing key ecosystem services in support of our wellbeing), are now suffering from the consequences of human activities. It has, for example, been estimated that diseases caused by pollution were responsible for an estimated 9 million premature deaths in 2015—16% of all deaths worldwide. And climate change is now perceived by many as one of the key global health threats of the 21st century.
The emerging field of planetary health explicitly accounts for the importance of natural systems in terms of averted cases of disease and the potential harm that comes from human perturbations of these systems. This course will discuss how human health depends on the health of our planet and explores relevant examples of this interlinkage (e.g. pollution, climate change, zoonotic disease emergence). Next to looking at our physical health, we will also explore mental health, well-being and human behaviour in relation to sustainable development.
A core competency for contributing to sustainable development is systems-thinking. Systems consist of 1) elements or parts, 2) interconnections (the way these characteristics relate to and/or feed back into each other), and 3) a function or purpose (Meadows, 2008). Systems can be simple or complex when they range across domains (environmental, economic, social, etc.) and scales (local to global). Systems thinking starts from an understanding of what systems are and the subsequent ability to analyze systems. A good understanding of the main facets of systems and of how systems work is of particular importance for thinking and acting in favor of sustainable development, as for instance intervention points can be identified, future trajectories anticipated, and for building transition strategies. This skills course runs in parallel with the course Sustainability and Social-Ecological Systems. In both of these courses students will get acquainted with the core concepts of systems thinking (including system dynamics and mental models). Where this skills course clearly deviates is that students will experience and learn about the core concepts of systems thinking through in class exercises and games, and apply the concepts to a case in their present live to also understand the place of the self within a system. The focus on (in-class) exercises is intended to stimulate discovery and confirmation of the main principles underlying systems thinking theory.
- Second Period
1) Science and Attribution of Conflict
First, the scene will be set by studying the politics of climate science and the role of science for assessing environmental, economic, and social consequences of climate change. In light of this, we will also study the potential conflict inducing nature of climate change.
2) Regulation to Reduce Greenhouse Gases
Second, we will delve into the international institutional and regulatory frameworks to reduce worldwide greenhouse gas emissions, we will scrutinize their ambition, and evaluate what national action is needed. In light of this, we will explore Global North-South perspectives, including discussing the greater responsibility that developed countries should take. The Paris Agreement and the European effort to become climate neutral by 2050 will be the focal points of attention.
3) Climate Justice and the Role of the Courts
Third, we will discuss climate justice through the lens of human rights. In this context, we will explore how litigation can be used by civil society in order to hold governments and companies to account for implementing effective climate policies. Some ground-breaking climate court cases will be scrutinized
and critically discussed.
For students interested in the natural sciences and want to look beyond the boundaries of a single discipline. For those who want to focus on one discipline and become an expert in that specific field. The Maastricht Science Programme offers students the opportunity to explore the natural sciences and to build a unique academic profile based on thier personal interests and ambitions. In this semester, the personal academic advisor guides the student in selecting courses from fields as diverse as biology, chemistry, mathematics, physics, neuroscience and various interdisciplinary fields such as biomedical engineering and entrepreneurship. The student can focus on a single discipline, or combine multiple disciplines in a single degree.
Sustainable development challenges facing our world today, including complex issues such as climate change and biodiversity loss, require joint and concerted action to be effectively addressed. As differences in needs, perspectives, and strategic agendas are amplified, gaining trust and shared understanding between stakeholders is a difficult task to achieve. Nonetheless, also in situations where parties seem divergent and head strong, there may be room to come to an agreement beneficial for all.
Fostering the competency of collaboration is widely recognized to be of crucial importance for thinking and acting in favor of sustainable development. While various definitions exist, at the core of the competency of collaboration lies the ability to learn from others; about being empathetic and respectful to the needs, perspectives and actions of others; about dealing with conflicts and facilitating participatory and collaborative problem-solving. In this skills course, students will be acquainted with collaboration competency and its important facets (including empathy, communication, active listening, negotiating, the use of conflict and of conflict resolution), will experience and learn about these facets through in-class exercises and games, and apply techniques – for instance through negotiation and conflict resolution games -to gain insight into different perspectives, build trust, improve communication and recognize opportunities for successfully negotiated agreements.
- Third Period
In Project Sustainability, students apply the knowledge and skills they have gathered from previous courses of the Sustainability Minor to address an actual sustainability-related issue. By use of qualitative and/or quantitative approaches and indicators, students assess the problems and conditions related to the issue at hand. Students collaborate in small (interdisciplinary) groups to select and identify a topic of their choice. The course provides example issues, but also welcome students’ ideas on actual issues associated with sustainability. Groups elaborate on the identified problem, design ways of addressing it and assess the results of doing so with sustainability indicator(s). The final product of the project is a report and a presentation that describes the solution approach the students have designed.
Typically, topics that students consider are focused on a specific level within a system (e.g., individual, organizational, community, city, regional, national, global), and require considering multiple system levels simultaneously. Consequently, applying systems, multilevel, and design thinking is a crucial part of Project Sustainability. As students will closely collaborate in this project, two core skills are developed: interdisciplinary teamwork and project management. Project Sustainability provides an opportunity to target actual sustainability issues, address them, and assess impact and conditions that lead to better sustainability conditions by students.
Entrepreneurship program
- First Period
The course Entrepreneurship: Theory and Practices aims at introducing students to a range of topics in the field of entrepreneurship and linking both entrepreneurial theory as well as practice. Critical questions like who, why, when and where start-ups embark on their entrepreneurial journey, are covered during this course. The course seeks to introduce the students to the vast literature about entrepreneurship and business start-ups and it challenges students to connect this literature to actual cases. The course covers aspects like entrepreneurial competences, regional eco-systems, opportunity recognition, appropriation, female and minority entrepreneurship, entrepreneurial success, etc. From a more practical standpoint, it explores how to put together an entrepreneurial team, develop approaches for evaluating the market reception, and discover the value creation potential of one’s venture idea.
Across the globe, increasing numbers of women are striking out on their own and they set up new businesses. In OECD countries, more women than men start businesses. The number of women being educated to degree level and above has also risen internationally. With the growing interest in women’s rights around the world, women’s economic empowerment and the recognition of its relevance have notably progressed too. Taking the perspective of women and entrepreneurship, this course takes a different approach on the role of the individual in the entrepreneurial process. As long as the dominant paradigm is to distinguish between entrepreneurship and female entrepreneurship, one could make the claim that a classical entrepreneur is seen as a male subject. The course does not aim to bring down gender barriers or be a strong activist voice for gender equality. Rather this course acknowledges that there are differences between the way men and women go about being entrepreneurs. This course strives to teach students the best from both worlds. The course will do so by focussing on entrepreneurship with different gender, economical, and cultural contexts and explore which lessons one may draw from these different contexts, both from an academic as well as from a practical perspective. Rooted in a strong academic base the course will consider entrepreneurial concepts in different contexts leading to context-rich learning and a better appreciation of diversified entrepreneurial solutions.
- Second Period
Interest in the concept of social and environmental entrepreneurship has been sparked over the last two decades due to frustration with inefficient, ineffective and failed action of government and philanthropic bodies, as well as the socially destructive behaviour of many businesses. An explicit and central social/environmental mission, innovation, creativity and a strong market orientation are the distinguishing features of social and environmental entrepreneurship. Social and environmental entrepreneurs are committed to furthering a social and/or environmental mission, and rank social, environmental or cultural impact on a par with, or above, profit. At the intersection of business, government and not-for-profit organisations, these social and environmental entrepreneurs are now visible and having an impact on a global scale.
This course will provide you the opportunity to learn how you can apply your knowledge and skills to address complex social and environmental problems. This course is structured around experiential problem-based learning, providing you the opportunity to synthesise theory and practice as you develop an idea for your own social and environmental enterprises. Topics will include: critically reviewing concepts; user centred-design of social and environmental enterprises; frameworks for understanding and strategizing; understanding and reporting social and environmental impact; and cross-sector collaboration.
The course Commercializing Science and Technology aims to help you understand and master core entrepreneurial challenges of turning science into products and products into businesses. In so doing, we will adopt a strongly entrepreneurial lens. That means that we will look at important technology commercialization activities through the eyes of a potential technology entrepreneur. Adopting the view of technology entrepreneurs means that market-related aspects of science commercialization move center stage. In that, one of the most important tasks entrepreneurs have to perform is to understand their full opportunity space, i.e. the range of potential opportunities and the conditions of value creation within those opportunities. Opportunity validation and development becomes the key focus, all the while paying attention to the challenges of developing the technology in parallel. If this process is mastered it can be a highly rewarding task—not only for individual inventors and their team, but also for stakeholders such as future employees, research and other value chain partners, the region, and the country.
The competencies you will acquire in this course will help you prepare for your own entrepreneurial journey. They will also be extremely valuable should you choose a career in managing technology at an established firm or within a public or private research lab. In particular university labs and corporate R&D department rely increasingly on professionals that help bridging the gap between science production (conference presentations, scientific publications, and patents) and commercial value creation (revenues, funding for scientific and applied research). In both settings efforts in research and development need to be legitimized and be able to answer to which extent they will ultimately result in economic performance—a core learning goal in this course.
UCM (University College Maastricht)
- First Period
“We can’t solve problems by using the same kind of thinking we used when we created them.”
These words of Albert Einstein are more valid today than ever. The complexities of today’s societies and the relationships between them are manifold and not easy to handle. Einstein’s plea to look at them in a different way is exactly what this course is about. The course aims to change your perspective on the world, so that you find that ‘the stuff of the world’ can be thought about in new ways that offer opportunities for interventions and passageways for improvement. After all, making a difference requires more than decisiveness: it requires thinking in new ways, thinking ‘out of the box’. And that is exactly what this course aims to do by introducing you to the field of Science and Technology Studies (STS).
In the field of STS, science and technology are considered as a socio-cultural phenomenon. You will be introduced in the STS in two courses. In the course (this one) we will focus on interrelation between technology and society, while in period 2 (HUM3049: Science, Power, and the Construction of Facts), we take the next step and zoom in on the constitution and application of science and its relations with society. This implies that in both cases we will pay attention to the social, cultural, historical, political, and economic conditions that impact the development and application of science and technology.
In this first course we unpack ‘technology’. In the standard perspective technology is largely seen as a process of applied science that simply results from previous scientific advances. In our daily routines we also tend not to spend much thought on the making of science and technology, commonly do not merit its use serious reflection either. Once things have been made or discovered, our interaction with them is understood to be a straightforward matter. We pick up our mobile phone, make some funny pictures with it, listen to music, twitter some details about what we do and where we are and chat with our friends. We board an airplane, fly from point A to point B, and then we get off the airplane. Although we are surrounded by the results of scientific endeavor and technologies of various kinds, they have become almost invisible, and we take them for granted. The field of Science and Technology Studies (STS) challenges this perspective on science and technology.
We live in a technological culture. Technology and science shape society, from the shaping of mobility patterns, gender and sexual identities to the standardization of practices in health care. Mobile phones have changed what it means ‘to be alone’; organ transplantation has redefined our understanding of life; and AI is changing our ways of being creative. Thus, technologies do not merely assist us in our everyday lives; they are also powerful forces acting to reshape our activities and their meanings. There is, vice versa, a cultural influence on technology too. Therefore, it is important for understanding technology to acknowledge their socio-cultural base. Historical and comparative studies have shown how different socio-cultural circumstances yield very different forms and contents of science and technology. Science and technology are, finally, also cultures themselves.
This course studies markets for information goods and gives an introduction to the economics of uncertainty and information.
The term “information good” is very broad and includes, in principle, everything that can be digitized, such as books, databases, music, etc. As a consequence, trade often takes place via the Internet. Information goods have special characteristics. For example, they typically have a special cost structure with high fixed costs but low marginal costs: making a copy of digital content has essentially no cost. We study several topics such as pricing, network effects, and lock-in. One focus will be on “platforms” (e.g., Apple’s App Store, Google Search Engine, Netflix), which are often key players in markets for information goods.
At the beginning, we introduce concepts from pricing and game theory, reviewing and extending contents of SSC1027 Principles of Economics. These concepts are useful because markets for information goods are often competitive but not perfectly competitive. Thus, firms can experiment with pricing and selling strategies, but they must take into account how potential competitors will respond.
The economics of uncertainty and information studies the role that information plays in the decisions and interactions of individuals, the design of contracts, and the working of markets. In many situations, individuals lack important information before making a decision. For example, sellers don’t know their customers’ willingness to pay, and investors don’t know which investment opportunities yield the highest profit. Often, information is not only incomplete but also asymmetrically distributed among the relevant parties (“adverse selection”, “moral hazard”). Examples include job applications, where the applicant knows more about his/her abilities than the employer, or insurance contracts, where the insurance company cannot observe the insuree’s effort in preventing damages. A central insight is that asymmetric distribution of information often leads to economic inefficiency.
This course critically focuses on structural issues of development on a global scale. Globalization refers to the increasing interdependence of markets, states and civil societies and the resulting effects on people and their environment. By also focusing on inequality, the structural differentiation among actors in terms of access to means, opportunities and resources, issues of (re-)distribution are taken into account as well. The course investigates inequalities and interdependencies on a global, international, national and local level, while considering the role of public, private and civil society actors. Thus, it aims to understand the underlying development processes and unlock the ongoing debates. The course focuses on the following themes: globalization and development; the Global Goals for Sustainable Development; a history of inequality; the agencies of development; democratization, human rights and development; health and development; global migration and remittances; and food security, natural resources and global crises.
Environmental problems such as chemical pollution, global warming, acid rain or species loss are both material effects of the human interaction with nature and nexuses of social practice and political contestation. This course probes the entanglements of nature, society, and politics through which the environment is formed, experienced, problematized, interpreted, and contested, and governed in different socio-cultural contexts. It helps students to develop a critical perspective on the dominant patterns of industrial production and consumption, and to ask how our societies can be made more sustainable. The course draws on insights from environmental history, environmental sociology, science and technology studies, sustainability studies, and recent debates on the “Anthropocene”. Thereby, it seeks to complement the fact-oriented perspective of the natural sciences with a reflective understanding of the politics through which our knowledge (and non-knowledge) of the environment is formed. The course is structured in four sections. The first three each focus on one core domain of nature-society-politics: the risks of industrial production; biodiversity and land; global climate change. The final section reflects on how we can move from these insights towards a comprehensive understanding and transformative politics of the Anthropocene.
This course focuses on the institutions of the European Union. At the same time, this course provides an opportunity for students to be exposed to legal thinking. Law is central to the process of European integration, and it plays a greater role in European affairs than it does at national or international level. It is accordingly essential for students to become familiar with the ways of legal thought and legal reasoning, if they want to understand fully the European integration process, and European matters more generally.
The recent revival of economic nationalism in various parts of the world, including in some of the traditional pillars of trade liberalization such as the United States and United Kingdom, reflect the growing fear, mistrust and hostility of many people in these countries and around the world regarding economic globalisation and international trade. While economic globalisation in general, and international trade in particular, undoubtedly offer the possibility of unprecedented prosperity for people in both developed and developing countries, they also cause numerous problems and give rise to justified concerns. The challenge facing the international community is to manage and regulate the economic globalisation and international trade so that they benefit all of humankind.
The World Trade Organization, established in 1995, is at the forefront of the multilateral effort to manage and regulate economic globalisation in general and international trade in particular. The law of the WTO governs the trade relations between the WTO’s 164 Members but also concerns each of us directly, as it affects the price and quality of the goods and services we consume. Moreover, for many of us, our (future) job will be, directly or indirectly, related to (and sometimes threatened by) international trade.
Since 2001, WTO Members have been negotiating in the context of the WTO Doha Development Round on rules for the further liberalisation of international trade. To the disappointment of many, years of negotiations so far have resulted in only limited agreements on new rules for international trade, achieved in Bali in December 2013 and in Nairobi in December 2015. However, the current WTO rules have played an important role in mitigating the consequences of the 2008-9 Global Financial and Economic Crisis. In the face of the dramatic drop in production and exports as well as high unemployment experienced by many countries during the 2008-9 crisis, it was feared that countries would resort to trade protectionist measures to support their domestic industries. During the Great Depression of the 1930s, the adoption of such protectionist measures deepened and lengthened the economic crisis considerably, which in turn led to political upheaval and radicalization, international tension and, eventually, war. The WTO and its rules have contributed much to the fact that countries did not – in any significant manner – resort to protectionism in response to the Global Financial and Economic Crisis and that history did not repeat itself. However, continued vigilance is called for because high levels of unemployment persist in many countries leading to pressure on governments by domestic industries calling for protection from foreign competition. Moreover, most present-day protectionist measures no longer take the form of high tariffs or small quotas (both easy to detect) but instead hide in domestic regulation or domestic policy measures.
This introductory course on WTO law and policy is recommended to all students who want to gain a better understanding of the core institutional and substantive rules of the international trading system. This understanding will enable students to also appreciate some other recent developments in the field of international economic law, such as the proliferation of preferential trade agreements. The number and coverage of such agreements have been increasing in response to the failure of the Doha Development Round to reach multilateral consensus, thereby shifting trade negotiations partly away from the WTO. Depending on the political and economic position of the involved states, some of these agreements may well set new standards for future international trade regulation. By taking this course, students will gain understanding of not just the WTO but also of other recent developments in international economic relations.
The course is built around a number of true-to-life international trade problems represented in the form of case studies. The course addresses six themes. It starts by examining the phenomenon of economic globalization and, the arguments for and against free trade, as well as the role of law in international economic and trade relations. Secondly, the course looks at the history, objectives, structure, functions, decision-making and membership of the WTO. Thirdly, the WTO’s unique system for the resolution of trade disputes is discussed. Fourthly, the principles of non-discrimination in WTO law (namely the obligations of most-favoured-nation treatment and national treatment) are examined. Fifthly, the WTO rules on market access, dealing with tariff barriers and some non-tariff barriers to trade in goods and services are addressed. Finally, the provisions of WTO law that aim to balance trade liberalization with other societal values (such as health, environment and security) by means of exceptions to WTO obligations are discussed.
- Second Period
Digitalization has a profound impact on our society. We can observe changes in different areas. What digital media do, what they look like, and how they relate to each other and to older media is not identical worldwide, but dependent on local practices as well. Transformations are not unequivocal. On the one hand, new genres have emerged, such as streaming channels, providing engaging forms of entertainment and learning but also provoking vehement discussions about their impact. New possibilities as e.g., participation in our digital cultures arise but also new inequalities, as the access and competencies needed for participation are not evenly distributed and the platforms that allow for participation also harbor new mechanisms of control and surveillance. The pace and diversity of these developments ask for continuous investigation and reflection. This development has gained a new impetus through 13the proliferation and popularity of social media but also the discourses around the Blockchain recently.
This course analyses European integration from the late 1940s until today. In a chronological order, it introduces students to themes such as security, economic integration and enlargement that continue to influence European integration in the present. In parallel, it also provides an overview of the main theories explaining (aspects of) European integration related to these themes, including ‘big theories’ such as neofunctionalism and neorealism, but also theories dealing with issues such as democratic legitimacy and the EU’s normative power. While firmly based in history, the sessions continuously will seek to also reflect on the relation between past processes and current developments, such as Brexit or the Rule of law crisis, as they are unfolding. The course closes with a critical discussion on the main challenges European integration is faced with today and the views developed for its future development.
The important role played by international law in international relations is evident: it offers not only a means for facilitating international cooperation, but also provides a psychological barrier against international delinquencies such as the waging of unlawful wars, the perpetration of widespread and systematic violations of human rights, and the extensive pollution of the environment. It also fulfils a vital role in national legal systems, as States are bound to incorporate or implement some international obligations into domestic law, such as those derived from human rights treaties, certain resolutions of the UN Security Council, and the Rome Statute of the International Criminal Court.
This course covers fields of regulation that relate directly to priority issues on the international agenda, such as the law of armed conflicts, international human rights law, and international criminal law. The topics addressed in the course should thus be of great interest to UCM students.
Not many will contest the societal impact of enterprising individuals and entrepreneurial ventures on our economies. Entrepreneurs may start-up companies that challenge (and often replace) incumbents. In the process, they create new jobs and apply competitive pressure on established firms. Entrepreneurs supposedly have an important direct and indirect effect on driving innovation. Despite the heroic image of successful entrepreneurs, entrepreneurship is much more about failure than about success. What motivates entrepreneurial types to venture of on a path that (at least statistically) will result in failure? Are they naïve, or are they stupid. In this course you will study factors that drive entrepreneurs and the entrepreneurial process. We will focus on new venture gestation: the initial stages of the process that may result in a new company to emerge. Throughout the course you will explore how entrepreneurs not only rely on generic business management principles, but also how they cope with the uncertainty, risk, scarcity of time, capital and other resources that is inherent to all entrepreneurial venturing. Perhaps you will conclude that many entrepreneurs are in fact not really good managers (good entrepreneurs will compensate for this by hiring better managers). We start the course by explore the process dynamics of entrepreneurial activity. We then will explore the origins of entrepreneurial opportunity, review how entrepreneurs screen and develop the opportunities that they discover, and you will unravel how entrepreneurs seek to appropriate the returns from their enterprising behaviour. This is not a “how-to” course, instead the course will introduce you to relevant scholarly insights that provide (future) entrepreneurs, an evidence base for entrepreneurial action. Those students that are ready to enact entrepreneurship may want to register for the LaunchBase Pre-incubation programme that we provide to enterprising students and alumni.
Too often IT is viewed as the province of technocrats, a domain inhabited by technical experts with little relevance to real-world problems. And yet, the economic importance of information, information systems, and thus information management has been growing constantly over the last decades, thanks to the relentless increase in computer performance.
We are increasingly dependent on information systems and data to make decisions in a wide range of domains. Sensor and network technology helps us to collect and analyze data in real-time, and to speed up decision making in all areas of our society. The possibilities of information and computer science are endless, but they also raise concerns: for instance about privacy, security, and identity, but also about interpretation and perception of data.
All these developments have led to the present-day ”digital enterprise”. In digital enterprises, the creation, distribution, use, integration and manipulation of information is a significant economic activity. The digitization of enterprises also has consequences for society. People who have the means to partake in this form of society are sometimes called digital citizens. This is one of many dozen labels that have been identified to suggest that humans are entering a new phase of society. The digital society can be both a threat and an opportunity to enterprises – this is, for instance, clearly visible in sectors such as retail (traditional retailers vs Amazon & Co), accomodation (traditional hotel vs AirBNB) and transportation (traditional taxis vs Uber).
This course offers an overview of role of digital concepts in enterprises: the digital enterprise. The course provides both a theoretical grounding and a pragmatic approach to applying key concepts. Drawing on ideas, tools, and techniques from such disciplines as economics, sociology, cognitive science, organizational behavior, and computer science, the course shows the digital enterprise from different perspectives: its position in society and the market , but also elements such as governance, information technology, and people. The course serves as an introduction to other Information and Computer Science courses, in which the various topics of the Digital Enterprise will be discussed in more detail.
This course focusses on the intersection of economics, politics and culture in Asia societies. The course transcends the borders of academic disciplines and includes topics such as long-run economic development, intra-regional cooperation, social change, political and economic institutions, and the changing global role of Asian countries. We pay attention to topical issues such as the trade and the financial relations between China and the rest of the world.
EPH (European Public Health)
- First Period
This course serves as an introduction to the BEPH curriculum and will lay the foundation for all upcoming courses.
In Part I of this course, you will be introduced to studying in an academic environment, the Problem Based Learning (PBL) system, the library, the structure and content of the EPH programme and the Specialized Competency Lines (SCLs). For a description of these SCLs, we refer to course EPH1221. You will study the many dimensions and complexity of the concept of health, and you will learn and reflect on how health has been defined within various traditions (WHO, positive health) and over time. You will also elaborate on the concepts ‘public’ and ‘European’, in order to find out more about what it means to study EPH.
In Part II of the course, you will study various determinants of health on various levels, and the most influential models in this regard. You will also be introduced to the phenomenon of health inequalities. Health is not equally divided among the population and you will study types and possible causes of socioeconomic and other health inequalities.
In Part III, the course departs into a focus on the European Union. This portion of the course addresses issues such as the history of the EU, the main purpose of the EU (economic), the EU treaties and the Charter of Fundamental Rights of the EU, the EU institutions (European Commission, European Parliament, Council), and the decision making processes on EU level. In order to understand public health issues and policies in Europe, it is essential that you have an understanding of the functioning of the EU and EU legislation. You will also reflect on several ethical issues and dilemmas that come into play when thinking about public health in Europe. During this part of the course you will participate in an excursion to the EU quarter in Brussels.
Course EPH1221 includes the Specialized Competency Lines (SCLs) Research Methodology, Statistics, Epidemiology and Policy Advocacy as taught in period 1. This SCLs are interwoven with the main course EPH1021 Health, Health Determinants and the European Union. For a description of this main course we refer to EPH1021. SCLs are longitudinal, cumulative learning lines, reflecting thematically focused bundles of (portions of) competencies to be achieved. The following five SCLs are interwoven throughout the programme: Research Methodology, Statistics, Epidemiology, Philosophy of Public Health and Policy Advocacy. Students will be introduced to all SCLs in period 1. For a description of the SCL Philosophy of Public Health in periods 1 and 2, please consult course EPH1241. As regards the SCL Methodology, students will be introduced into research methodology and the link between the SCLs Methodology, Epidemiology and Statistics. They will further be trained in the critical appraisal of a research problem. As regards the SCL Epidemiology, students will be introduced into the field of epidemiology and trained in measuring health and disease and associated factors. As regards the SCL Statistics, students will be introduced into statistical thinking and the topics ‘What are statistics and for which purposes are they applied?’ and ‘Meaning and value of “measuring”’. As regards the SCL Policy Advocacy, students will be introduced into the concept of policy advocacy. As students develop an understanding of what health is, and what may determine health, it will become clear that public policy plays a major role in public health outcomes. Not only do public policies define many if not most aspects of the healthcare sector, but public policies also have an influence on all aspects of our living, work, and public environments. Therefore, as public health professionals, it is important that students develop skills in understanding, critiquing, and influencing public policies.
Please see modules EPH1021 and EPH1022.
- Second Period
Course EPH1222 includes the Specialized Competency Lines (SCLs) Research Methodology, Statistics, Epidemiology and Policy Advocacy as taught in period 2. This SCLs are interwoven with the main course EPH1022 ”Communicable and non-communicable diseases in the EU and WHO Euro””. For a description of this main course we refer to EPH1022.
SCLs are longitudinal, cumulative learning lines, reflecting thematically focused bundles of (portions of) competencies to be achieved. The following five SCLs are interwoven throughout the programme: Research Methodology, Statistics, Epidemiology, Philosophy of Public Health and Policy Advocacy.
Students have been introduced to all SCLs in period 1 and will continue developing them in period 2. For a description of the SCL Philosophy of Public Health in periods 1 and 2, please consult course EPH1241.
The module focusses on health and disease not only within the EU but takes the wider perspective of the WHO European region. In this geographical and geo-political perspective, concrete communicable and non-communicable diseases are the focus of attention. You will learn about common and rare diseases and the policy frames to counter these. The classic perspective of public health is to focus on infectious diseases. Thus, the module will start with the introduction of infectious diseases. You will discuss diseases caused by bacteria, viruses and parasites and their incidence and prevalence. You will learn about policy initiatives to prevent and fight these diseases across the WHO European region. For non-communicable diseases, we cover three broad sub-categories: 1) metabolic-toxic diseases like cardiovascular diseases and diabetes, 2) cancer and 3) mental health. In the context of bacterial infectious diseases, the module explores the issue of antimicrobial resistance – in Europe and globally. The structure of the module reflects the idea of “layers of complexity”, which means that you will learn about diseases starting from 1) understanding different definitions of diseases and their causality; 2) learning about the complexities of comorbidities; 3) understanding the burden of mental disorders; 4) the role of antimicrobial resistance; 5) the role of broader environment in human health. This module thus approaches diseases through a certain frame, namely through different perspectives and from different angles, among them: aetiology, comorbidity, bio-social determinants, and health equity. Within this module, you will be introduced to the social, biological and epidemiological aspects of diseases. It is not expected that you have prior in depth knowledge in biology. However, for future public health professionals who will work in collaboration with medical doctors and biomedical scientists, it is important to understand some of the concepts and challenges that these professionals meet in their practice.
Healthcare and public health environments are facing challenges, including those brought by ageing, technological advances, economic inequalities, and shifting expectations of society. Qualitative research has unique strengths in producing nuanced and people-centered knowledge crucial for understanding impacts of health interventions and complex arrangements of care, among others. During this module students will learn how qualitative research can be used in understanding and addressing contemporary health problems, understand the theoretical foundations of qualitative research; practice qualitative data collection and analysis techniques; and reflect on meaningful ways to combine qualitative and quantitative approaches. Concurrently with delving into qualitative health research, students will work on their year paper with support of trainings in literature search, academic writing, and citation management.
The module is organized around core themes in qualitative research: defining and designing qualitative research project; collecting data; analyzing data and ensuring quality; theory and innovative approaches in qualitative research.The module is practice oriented to allow students master essential techniques sufficient to independently conceive and implement basic qualitative research study.
- Third Period
Healthcare and public health environments are facing challenges, including those brought by ageing, technological advances, economic inequalities, and shifting expectations of society. Qualitative research has unique strengths in producing nuanced and people-centered knowledge crucial for understanding impacts of health interventions and complex arrangements of care, among others. During this module students will learn how qualitative research can be used in understanding and addressing contemporary health problems, understand the theoretical foundations of qualitative research; practice qualitative data collection and analysis techniques; and reflect on meaningful ways to combine qualitative and quantitative approaches. Concurrently with delving into qualitative health research, students will work on their year paper with support of trainings in literature search, academic writing, and citation management.
The module is organized around core themes in qualitative research: defining and designing qualitative research project; collecting data; analyzing data and ensuring quality; theory and innovative approaches in qualitative research.The module is practice oriented to allow students master essential techniques sufficient to independently conceive and implement basic qualitative research study.
LAW (European Law School)
- First Period
In this course, we study basic concepts of constitutional law. Particular attention is devoted to: the functioning of a state, different systems of government and the concept and application of the principle of separation of powers. Furthermore, different electoral systems and different mechanisms governing the relations between the executive and legislative branches of government will be discussed. The issues of federalism and bicameralism will be analysed. Finally, the rules governing constitutional review will be discussed, together with the issue of fundamental rights protection. These themes will be addressed with regard to the American, German, French, British and Dutch legal systems.
This course aims to introduce students to the general content of modern law and to the discipline of legal reasoning. These two go together. Law cannot be fully understood in abstraction of the particular way that lawyers, judges and other expert operators of the legal system look at it. Coming out of the course, students should be able to understand what law is and how it is different from (and similar to) morality, identify the main branches of Law and their basic institutions, recognize and differentiate the principal values underlying those branches and understand the nature of legal reasoning and be able to apply it to legal problems.
It is often assumed that to study law means essentially to study the law of a particular jurisdiction. A Dutch lawyer studies Dutch law and a German lawyer studies German law, and there is little that they share beyond the name of their chosen profession. This picture is misleading. Despite the fact that every country establishes its own legal system, there is much less diversity in law than what one would imagine. A key theme of this course is that law arises naturally as a solution to various social problems and, to the extent that human societies face the same problems, similar responses appear almost everywhere. Even though details may vary, contract, property, inheritance, marriage, constitutions and crimes exist in almost all modern societies. Instead of focusing on specific sets of rules like the Dutch Civil Code, or the French Criminal Code, this course focuses on these widely shared problems and widely shared institutional responses.
With regards to legal reasoning, the course asks students to create a tax, which will help them understand how law can be used as a policy tool for regulatory and redistributive purposes. In this connection, the course will also include a “workshop” where students will be asked to go through a high profile judgment and identify the logical moves taken by a court to justify its decision.
- Second Period
This course offers an introduction to private law as a system focusing on the fields of family law, contract law, property law and tort law. In this introductory course, students will become aware of the core principles and fields of private law, learn how to apply legal rules from diverse sources of private law to the core legal issues in private law, and learn how to analyse the facilitative and regulatory role of private law in society. The aim of this course is to provide students with an understanding of the fundamental building blocks that constitute the underlying system of private law. The approach of this course is comparative throughout, using examples from diverse jurisdictions such as Germany, England, France and the Netherlands to illustrate the main rules and principles from family law, contract law, property law and tort law.