COURSE CURRICULUM

The Computer Science program provides a rigorous academic and practical foundation over three years, integrating core computing principles with modern industry practices. In Year 1, students begin with modules like Computer and Communication Systems, which lays the groundwork for understanding how computing hardware, network infrastructures, and protocols operate together. Paradigms of Programming introduces essential programming concepts using both object-oriented and functional styles, encouraging adaptable coding skills across languages. Algorithms and Data Structures develops problem-solving abilities through the design and analysis of efficient algorithms. Introduction to Compilers deepens understanding of how programming languages are translated into executable code by covering formal grammars, machine instructions, and compiler theory. Principles of Software Engineering is taken twice, offering strong exposure to team-based development, professional workflows, and software lifecycle practices. Students also gain a solid mathematical foundation through Mathematics for Computer Science and Advanced Mathematics for Computer Science, preparing them for analytical aspects of computing. Year 2 focuses on applying and extending foundational knowledge. Advanced Programming equips students with essential tools and practices such as version control, concurrent programming, and testing. Games Technology and Games Portfolio provide technical and creative insights into game development, from engine mechanics and physics to 3D design and AI behaviors. Advanced Algorithms and Data Structures continues to challenge students in computational modelling, while Computational Methods and Numerical Techniques equips them with advanced statistical and numerical tools for data analysis and problem-solving. In Year 3, students undertake a substantial Final Year Project, synthesizing their knowledge into a professional-grade software or research product. Modules such as Natural Computing explore biologically-inspired computing approaches, while JVM Programming Languages enhances versatility with languages running on the Java Virtual Machine. Artificial Intelligence for Games teaches students how to design responsive, intelligent behaviors in gaming contexts, and Shader Programming empowers them to create high-performance graphics and visual effects using GPU programming. Together, these modules prepare graduates for dynamic careers in software development, games engineering, and computational research.