Some problems explode
Every extra yes/no decision doubles the number of possible answers. At a few hundred variables, checking them all is hopeless for any computer.
I design quantum optimisation methods that scale beyond the limits of today's hardware, and apply them to real problems in genomics.
The most useful problems in science often grow too fast for classical computers. Quantum hardware searches them differently, but today's devices are small and noisy, so the work is making them useful now.
Every extra yes/no decision doubles the number of possible answers. At a few hundred variables, checking them all is hopeless for any computer.
Qubits hold many possibilities at once, share correlations no classical bit can, and can tunnel through energy barriers instead of climbing over them.
Current devices offer around 150 qubits, sparse connections between them, and errors that pile up with every gate.
The goal: use quantum processors the way supercomputers use GPUs, as specialised accelerators working alongside classical nodes.
Decomposition, parallel HPQ execution, and topology-aware scaling on IBM hardware.
Read → AnimationsQUBO decomposition, the HADOF loop, assembly and results — animated.
Watch → PublicationsbioRxiv, arXiv, ECAI workshop proceedings, COMSNETS and Energy Economics.
Browse → TalksIBM Quantum Developer Conference 2026 and the AIQxQIA workshop at ECAI 2025.
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