Jonathan graduated in Physics from Imperial College in 1980 and obtained a Ph.D. in Theoretical Physics from Kings College, London.…
Course Code: SCC2604
Start Date: 01/06/2026
Day of the Week:Session: Afternoon
Delivery method: Centre Only
Length in weeks: 5
Time: 2pm-4pm
Price: £
Fractals and chaos represent two of the most influential and transformative concepts in modern science, revealing order within apparent complexity and unpredictability. Fractals are geometric structures characterized by self-similarity, meaning their patterns repeat at different scales. First popularized by Benoît Mandelbrot in his book “The Fractal Geometry of Nature”, published in 1982, fractals provide powerful models for describing complex natural forms such as coastlines, clouds, trees, and blood vessels, which cannot be adequately represented using classical Euclidean geometry. Their mathematical properties have found applications in physics, biology, medicine, computer graphics, art, music and many other subject areas. Chaos theory, closely related to fractal geometry, studies deterministic systems that exhibit extreme sensitivity to initial conditions. Even simple nonlinear equations can produce highly complex and unpredictable behaviour, a phenomenon often referred to as the “butterfly effect.” Chaos has been identified in diverse systems, including weather patterns, fluid dynamics and public health medicine, for example. Despite their unpredictability, chaotic systems are governed by precise mathematical laws and often generate fractal structures known as “strange attractors”.
Together, fractals and chaos have reshaped scientific understanding by challenging traditional notions of linearity, predictability, and reductionism. They provide new tools for modelling real-world systems where complexity, irregularity, and nonlinearity are fundamental features. As computational power continues to grow, research into fractals and chaos is expanding into new frontiers, including neuroscience, financial modelling, artificial intelligence, and complex networks. These fields highlight the profound impact of fractal and chaotic principles in uncovering hidden structures and dynamics underlying natural and technological systems.
No prior experience is required, making this course suitable for beginners, professionals exploring fractals and chaos for their fields, or anyone interested in understanding the new frontiers of science that the subject has and continues to project.