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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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  • Mathematical Secrets of Shapes and Colors

    Mathematics is everywhere around us—even where we least expect it! In this course, students explore the connection between mathematics and art, discovering how mathematical thinking is reflected in artistic expression across different historical periods. Through the study of colorful paintings by renowned artists and the geometry and aesthetics of ancient Greek pottery, children are introduced to key mathematical concepts in a meaningful and engaging context.

    Students participate in hands-on, creative activities that involve shapes, patterns, symmetry, proportions, and color relationships. They analyze selected works of art to identify the underlying mathematical structures that organize them and then apply these concepts by creating their own artistic compositions.

    The goal of the course is to help students understand that mathematics extends beyond numbers and calculations: it is a creative and culturally rich way of thinking that supports problem-solving, visual literacy, and artistic expression, while fostering an appreciation for beauty, imagination, and cultural heritage.

    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.

    Principles of Engineering Design

    What is the difference between science and engineering? What are the techniques that must be applied for successfully tackling any engineering challenge, from designing and building a bed-side table to conceptualizing and sending a shuttle to space? How can a group of engineers efficiently compartmentalize a multi-system project, allocate tasks and optimize the budget provided to solve a multifaceted constructional problem? This course explores a range of topics from physics and science and bridges the gap between pure theoretical knowledge and its practical application. Through daily doses of lectures, class discussions, problem-solving and plentiful hands-on lab activities, the students will be exposed to an array of concepts, varying from Newtonian dynamics and circuitry to fluid dynamics and thermal physics and through their application, complete engineering tasks of progressively increasing complexity. 

    Learning objectives:

    • Apply concepts from various topics of physics into practical constructional projects with strict requirements, aimed at tackling specific problems of varying complexity and constraints.
    • Train in the engineering design process, practical problem-solving and collaborative teamwork to complete assigned engineering design and production tasks. 
    • Develop and train a variety of technical skills, including detailed technical drawings of projects, precision soldering of electronic components and wood work skills. 

    Taming Randomness

    Chance plays an important part in all aspects of life.

    We take chances every day: will a shot at goal land in the goal or miss? Will we be caught in a sudden shower or not? How long do we need to wait to be served in our favourite burger house?

    Chance or random variation is also a central feature of all working systems: a scientist taking measurements in a lab; a disease spreading through a population; an economist studying price fluctuation. In all these processes some element of chance or randomness are present.  Is it possible to understand and therefore model and analyse such phenomena? If so, what are the tools we need to achieve that? Do we live in a world of randomness, or, as Einstein famously claimed, no one plays dice with the universe?

    During this course, we will attempt to “tame randomness” using mathematics as our compass. 

    Learning objectives:

    • Develop a robust theoretical understanding of the basics of probability theory. 
    • Develop the capability to identify the underlying randomness in real life problems, and decide how to model and quantify it.
    • Gain an in-depth understanding of the basic technical tools needed in applied probability.
    • Make use of random variables and theoretical probability distributions to model simple random processes (Η).

    The Art & Science of Filmaking

    Almost 120 years ago (1896), the first film ever made was presented in a French café impressing the audience. From that time a new art was progressively formed through a variety of artistic movements, trends, and also scientific and technological achievements.

    Film watching has been a favorite habit for billions of people around the world. But, why are so many people engaged by the stories presented on screen? What are the biological and psychological processes activated during film-watching? How have these processes evolved in humans? Do we all “see” the same story on screen? Furthermore, how is cinematic reality constructed? How do images and sounds interact to compose the cinematic world? What is the science behind visual and audio effects?

    These are just some of the concepts to be investigated by the students in this course. As they develop a deep understanding of the principles of cinematic narration, students will also learn various scientific concepts as well as techniques related the film-making and film-watching processes.