Semiconductor spin qubits based on spin–orbit states are responsive to electric field
excitations, allowing for practical, fast and potentially scalable qubit control. Spin electric …

Quantum computation (QC) is one of the most challenging quantum technologies that
promise to revolutionize data computation in the long-term by outperforming the classical …

Quantum computation requires a qubit-specific measurement capability to readout the final
state of individual qubits. Promising solid-state architectures use external readout …

Several domains of society will be disrupted once millions of high-quality qubits can be
brought together to perform fault-tolerant quantum computing (FTQC). All quantum …

The recent development of arrays of quantum dots in semiconductor nanostructures
highlights the progress of quantum devices toward a large scale. However, how to realize …

Silicon spin qubits are promising candidates for realizing large-scale quantum processors,
benefitting from a magnetically quiet host material and the prospects of leveraging the …

The ability to manipulate electron spins with voltage-dependent electric fields is key to the
operation of quantum spintronics devices, such as spin-based semiconductor qubits. A …

Hole spins in silicon represent a promising yet barely explored direction for solid-state
quantum computation, possibly combining long spin coherence, resulting from a reduced …

In this letter, we characterize the electrical properties of commercial bulk 40-nm MOSFETs at
room and deep cryogenic temperatures, with a focus on quantum information processing …

Spins in silicon quantum devices are promising candidates for large-scale quantum
computing. Gate-based sensing of spin qubits offers a compact and scalable readout with …