aiqbench analysis
This study demonstrates how D-Wave hardware can be repurposed to probe excited states and estimate energy gaps in the transverse-field Ising model via Rabi oscillations, bypassing classical computational limits for larger systems. By moving beyond standard ground-state optimization, this approach offers a novel pathway for simulating complex quantum materials where traditional numerical methods fail due to exponential scaling issues.
Rabi Oscillations Let D-Wave System Probe System Energy Levels

Researchers are using a D-Wave quantum annealer and triangular-wave fields to induce Rabi oscillations, estimating energy gaps in quantum systems.
Researchers at Chuo University are applying a triangular-wave oscillating magnetic field to a D-Wave quantum annealer. This approach allows them to move beyond standard quantum annealing, which typically focuses on finding only the ground state of a quantum system. Instead, the team’s method directly accesses information about excited states within the well-studied transverse-field Ising Hamiltonian, a model central to understanding quantum phase transitions and non-equilibrium dynamics. The work proposes inducing Rabi oscillations to estimate energy gaps between states, potentially enabling simulations of larger systems than currently possible with classical computation. The researchers state this offers a new…
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