A production-grade Hybrid Quantum Machine Learning pipeline running on the IQM Garnet Processor.
We stress-tested our approach via two parallel tracks to ensure robustness: Track A optimized for real hardware constraints, while Track B validated the theoretical upper bounds in simulation.
Focus: Speed & Real Noise Resilience
Focus: Theory & Sim-to-Real Transfer
Reduced API overhead by 99% through circuit batching. Submitted 100 circuits per job instead of individual executions, enabling full training within credit constraints.
Dynamically extracted IQM Garnet's coupling map and applied optimization level 3 to insert SWAP gates automatically, ensuring circuit validity on real hardware.
Implemented 0-to-π Scaling strategies to maximize Angle Embedding expressivity on the Bloch sphere, preventing phase redundancy and "feature crowding".
Integrated a Weighted MSE cost function (Track B) to penalize minority class errors, ensuring the model doesn't just predict "safe" non-defaults.
Left: Unweighted (High Accuracy, Low Recall). Right: Weighted (Balanced, High Recall).
Hardware-efficient ansatz with circular entanglement pattern. Angle embedding via RX gates.
Data re-uploading architecture. Interleaves feature encoding with trainable rotations across multiple layers.
Fidelity quantum kernel using inversion test. Computes kernel matrix via quantum interference.
Built for the Banco Santander Quantum Challenge 2025. Our mission: Demonstrate production-ready quantum machine learning on real hardware with rigorous engineering standards.