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Listening For New Physics With Quantum Acoustics
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abstract
We present a novel application of a qubit-coupled phonon detector to search for new physics, e.g., ultralight dark matter (DM) and high-frequency gravitational waves. The detector, motivated by recent advances in quantum acoustics, is composed of superconducting transmon qubits coupled to high-overtone bulk acoustic resonators ($h$BARs) and operates in the GHz - 10 GHz frequency range. New physics can excite $O(10 \, \mu \text{eV})$ phonons within the $h$BAR, which are then converted to qubit excitations via a transducer. We detail the design, operation, backgrounds, and expected sensitivity of a prototype detector, as well as a next-generation detector optimized for new physics signals. We find that a future detector can complement current haloscope experiments in the search for both dark photon DM and high-frequency gravitational waves. Lastly we comment on such a detector's ability to operate as a $10 \, \mu\text{eV}$ threshold athermal phonon sensor for sub-GeV DM detection.
Forward citations
Cited by 2 Pith papers
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Piezoelectric Bulk Acoustic Resonators For Dark Photon Detection
A piezoelectric quartz resonator could detect dark photon dark matter through resonant phonon excitation, with projected sensitivity orders of magnitude beyond current experiments.
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Real-Time Detection of Charge Jumps in Superconducting Qubits with a Convolutional Neural Network
A dilated causal CNN quantized to fixed point and synthesized to an FPGA detects charge jumps in superconducting qubits at 6.19 μs latency with 0.843 efficiency, close to the 0.866 of the offline χ2 method on |Δq|∈[0.1,0.5]e.
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