Main navigation
- Programs
- Subjects
- Universities
- Destinations
- Advice
Combinatorics explores the properties of discrete structures and their applications. Contemporary scientific progress frequently utilizes combinatorial models to represent physical phenomena, with computational advancements enabling practical research in this field. Given that computers operate on discrete data, combinatorics has become essential to computer science. Optimization, also known as mathematical programming, focuses on finding maximum and minimum values of functions under given constraints. The rise of computing power has significantly expanded optimization theory, enriching both combinatorial mathematics and classical analysis. These optimization techniques apply to engineering, physical sciences, management disciplines, and various mathematical fields. The MMath program includes approximately one year of graduate-level coursework followed by either a research project or thesis under faculty guidance.
A graph is defined by a collection of elements connected through binary relations. These structures can be visually represented with points (elements) and connecting lines (relations), which gives graph theory its name and intuitive appeal. Beyond their visual representation, graphs serve as fundamental mathematical tools appearing in numerous theoretical and practical contexts. While Euler recognized graph concepts in the 1700s, the famous Four-Colour Problem posed by F. Guthrie in the 1800s truly propelled graph theory's development. Throughout the 20th century, graph theory intersected with linear algebra, probability, number theory, group theory, geometry, topology, and other mathematical domains, fostering new discoveries. More recently, its connections with operations research and computer science have accelerated graph theory's growth and elevated its importance in modern mathematics.