The program is built on a simple premise: quantum computing cannot be meaningfully understood or engineered through theory and simulation alone. It therefore combines rigorous training in mathematics, physics, and computation with direct interaction with multi-qubit quantum hardware, enabling students to engage with the actual behaviour and limitations of quantum systems.

As students progress, they move from foundational concepts to qubit architectures, quantum algorithms, and error-prone implementations, alongside continuous engagement in structured research. This integration of theory, systems, and experimentation develops the ability to work on real quantum problems rather than only studying established models.

The program is designed to address a central constraint in the field: the shortage of engineers trained to work with quantum systems under real conditions. By integrating theory, hardware access, and sustained research, it prepares students to understand and build quantum systems as they exist in practice.

Key Highlights of the Program

• Access to 8-qubit quantum systems for executing circuits and analyzing measurement outcomes.
• Study of noise, decoherence, and error rates through observed behaviour in physical quantum systems.
• Implementation of quantum algorithms under hardware constraints such as circuit depth and gate fidelity.
• Coverage of quantum error correction methods in near-term, non-fault-tolerant architectures.
• Introduction to post-quantum cryptographic approaches and their computational implications.
• Exposure to hybrid quantum-classical workflows, including variational and optimisation techniques.
• Structured research leading to technical documentation and publication-oriented outcomes.

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