Computer Engineering University of Ottawa

Overview

The Computer Engineering programme at the University of Ottawa is designed to build a robust foundation in traditional engineering while exploring modern computing frontiers. This comprehensive curriculum bridges the gap between hardware architecture and software development, ensuring graduates are prepared for the evolving technology sector. Students engage with complex systems, ranging from small microprocessors to large-scale network infrastructures.

The curriculum is structured to provide a balanced mix of theoretical knowledge and practical application. By integrating core engineering principles with specialised computer science topics, the university ensures that students develop the analytical skills necessary to solve intricate technical challenges.

Why Computer Engineering at University of Ottawa?

Choosing this programme means joining a faculty that emphasises innovation through its dedicated co-operative education stream. This allows students to gain valuable industry experience while completing their degree. The university provides access to advanced laboratories and research facilities, fostering an environment where students can specialise in high-demand areas such as real-time operating systems, robotics, and computer architecture.

Tuition Fee Breakdown

• International fee: CAD 31582 per semester
• National fee: CAD 4779 per semester

Visit the Fees and Funding section for a breakdown in your local currency.

Syllabus

The curriculum covers essential topics in mathematics, physics, and specialised engineering. Modules may include:

• Digital Systems
• Computing
• Engineering Mechanics
• Calculus
• Computer Architecture
• Data Structures and Algorithms
• Electronics
• Circuit Theory
• Software Engineering

Careers with Computer Engineering

Graduates are equipped for a diverse range of professional paths within the global technology industry. The programme prepares individuals for roles in software engineering, hardware design, and systems analysis. Potential career destinations include sectors such as telecommunications, robotics, aerospace, and data communications. The integration of professional practice modules ensures that students are ready for the ethical and technical demands of the modern engineering workforce.