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Courses

Courses

Explore our wide range of courses, filtered by age, program type, and exam profile. Whether you’re interested in verbal or quantitative subjects, we have something to challenge and inspire you.

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  • Be a Scientist!

    What do paleontologists work on? How do meteorologists predict the weather? How do molecular biologists isolate DNA? In this interactive course, students live and work as different researchers every day and become familiar with the scientific method. Scientific fields such as Astrophysics, Paleontology, Meteorology, Oceanology, Genetics and Health Sciences, as well as environmental concepts such as water and energy resources, are presented in a fun and experiential way.

    The young scientists put on the chemist’s lab coat and perform an electrolysis experiment to harness hydrogen. They construct the human cell with simple materials, isolate DNA, delve into different medical methods, apply water purification technology as environmental engineers, make their own crystals as geologists, and tend their own crops as agronomists.

    They embark through complex engineering concepts by designing and constructing their own pendulum. Through experiments, discussions and group work students gain knowledge of different scientific fields but also a deeper understanding of what it really means to be a scientist.

    Learning Objectives

    • Design and implement an original experiment using all steps of the scientific method.
    • Collect, organize and analyze experimental data and observations and present the results.
    • Select, research and compare three scientific disciplines and describe their similarities and differences.

    Cryptology

    Cryptology is the study of the codes and ciphers used to create secret writing. In this math course, students begin their journey with an exploration of many early techniques for creating secret writing, such as cipher wheels, the Caesar shift, polyalphabetic substitution, and the Vigenère cipher. They move on to learn about modern techniques including RSA public key cryptography, as students explore how data transmitted by computers can be secured with digital encryption. Discussions about the vulnerabilities of each encryption system enable students to attack and decrypt messages using techniques such as frequency analysis and cribbing. Students apply the concepts learn to encrypt and decrypt their own secret messages.

    Though the course’s central focus is on the mathematics of cryptology, the historical context of cryptography and cryptographic devices is provided to further develop an understanding of this branch of mathematics. For example, students examine the design and fallibility of the Enigma Machine, one of the most important cryptographic devices in history.

    Fundamentals of Computer Science

    Do computers make mistakes? How does a machine even know what to do? Is Artificial Intelligence really intelligent? This course will guide students through the principles of computer science, exploring the theory and real-world applications of the concepts that govern it. Students will learn about the concepts of algorithms, binary mathematics, Boolean algebra and digital logic, and the theory of computation. They will be introduced to the workings of computer architecture, operating systems, computer networks and embedded systems, and gain insight into the neural networks that power modern AI systems. Throughout the course, the students will have the opportunity to build on their newfound theoretical knowledge through simulations on topics such as Digital Design and Turing Machines, as well as a plethora of hands-on programming challenges, primarily in C++.

    Learning Objectives

    • Gain a broad understanding of how computing and technology are shaping our world.
    • Formulate and implement algorithms in one or more industry-standard programming languages; Investigate code errors, debug and test programs, and evaluate complexity of algorithms
    • Think algorithmically to solve programming problems using conditional, iterative and recursive structures, and other techniques.
    • Compare and contrast procedural and object-oriented programming paradigms
    • Develop collaboration skills in team, project-based learning environments

    International Relations

    It’s the late 1800s and you are the leader of a European country: the Austrian Empire or the Kingdom of Prussia (Germany) or smaller but influential countries such as the Kingdom of Two Sicilies or Switzerland. What decisions will you make? This is your reality for the next three weeks, as you undertake the European Leadership Project, a simulation that focuses on Europe and its political, military, economic, and cultural developments from the end of the Napoleonic wars (1815) until the start of World War I (1914).

    As presidents, tsars, popes or dukes, you present your decisions, answer questions posed by your opponents, try to solicit support for your quest and tackle international crises, aiming to win the final vote. Through rigorous research and analysis of your own and your opponents’ decisions, you gain a broad understanding of the study of the origins of modern international politics, emphasizing on significant themes such as foreign policy and the role of great powers, superpowers, ethnic and religious movements and terrorist groups in the arena of international affairs. Among others, you focus on the relationship between constructivism and realism in International Relations, evaluate the importance of good relations between countries with respect to the economy and evaluate why the 1929 Geneva Conference was necessary.

    Learning Objectives

    • Develop cognitive skills such as primary source analysis, logical inferences, and map construction and interpretation.
    • Evaluate, synthesize and analyze key facts and ideas productively, to deepen your understanding of modern reality and the world issues which concern policymakers and citizens today.
    • Discuss and interpret key ideas in International Relations, such as the Security Dilemma, the contribution of nationalism to the rise of imperialism and totalitarian regimes. 

    Numbers: Zero to Infinity

    How can you calculate the height of my school? How can I design a map? How many ingredients will I need to make cookies for 7 people? Or maybe for 97? How tall is a person that is 5 feet tall? Students explore numbers, from the very small to the unimaginably large, and learn how numeric representations help to explain natural phenomena such as time, distance, and temperature.  Moving beyond traditional arithmetic, this course centers on hands-on activities that develop understanding of the scope and scale of numbers.

    Learning Objectives:

    • Explain, classify, and operate on different types of numbers, ranging from very small to very large numbers.
    • Solve problems and justify real-world solutions involving decimals, exponents, negative numbers, proportions, and ratios.
    • Utilize various measurement tools and techniques.
    • Apply strategies of rounding, estimating, and mental calculations to solve real-world problems.
    • Share and articulate ideas and solutions to problems, both written and orally, independently and in groups.

    Our Beautiful Mind

    Can cats actually see in the dark? Do snakes really smell with their tongues? What sense is associated most with memory? How do optical illusions “trick” the brain?

    During this course, students discover the 5 senses and explore the anatomy and physiology of the nervous system and the sensory organs. They’ll learn about sensory abilities that humans don’t have, like magnetoreception and sonar navigation, and discuss how the brain’s perception mechanisms turn sensory information into an organism’s experience of its surroundings.

    By employing the scientific method, students work together to answer fascinating questions related to sensation, perception, and the brain.

    Learning objectives:

    • Learn how physical and chemical signals from the environment are translated into neural impulses in the body.
    • Understand the use of models in biology and how these are like and unlike what they represent, and create biological models for the key parts of the sensory systems of the body.
    • Comprehend the journey of information through the body from the sensation of an external stimulus all the way to the perception of it in the brain.
    • Use the scientific method to investigate questions related to the body’s use of the five senses and design an experiment from beginning to end.