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This breakthrough addresses a fundamental scalability bottleneck in quantum computing by replacing stochastic nanofabrication with deterministic magnetic levitation for electron-on-neon qubits. By enabling precise placement of qubits rather than relying on random defect formation, the design significantly improves reproducibility and paves the way for larger-scale quantum processors. The integration of established microwave control circuits with this novel positioning method represents a critical step toward practical, high-fidelity quantum hardware.
New chip places qubits with magnets, not random chance

Engineers designed a new chip placing electron-on-neon qubits using magnetic levitation, avoiding random defects in nanoscale features.
Florida State University researchers are tackling a core challenge in quantum computing: reliably building qubits. The team reports in PRX Quantum a new chip design that uses magnetic levitation to position single electron qubits above a surface of solid neon, moving beyond the random chance that previously dictated qubit performance. “Instead of hoping that the right nanoscale feature appears in the right place, we want to decide where…
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