Hole spin qubits in group-IV semiconductors, especially Ge and Si, are actively investigated
as platforms for ultrafast electrical spin manipulation thanks to their strong spin-orbit …

The spin-orbit interaction in spin qubits enables spin-flip transitions, resulting in Rabi
oscillations when an external microwave field is resonant with the qubit frequency. Here, we …

The spin of a single electron confined in a semiconductor quantum dot is a natural qubit
candidate. Fundamental building blocks of spin-based quantum computing have been …

Hybrid systems comprising superconducting and semiconducting materials are promising
architectures for quantum computing. Superconductors induce long-range interactions …

Silicon hole quantum dots have been the subject of considerable attention thanks to their
strong spin-orbit coupling enabling electrical control, a feature that has been demonstrated …

We study the implications of spin–orbit interaction (SOI) for two-qubit gates (TQGs) in
semiconductor spin qubit platforms. SOI renders the exchange interaction governing qubit …

Semiconductor quantum dots (QDs) in planar germanium (Ge) heterostructures have
emerged as frontrunners for future hole-based quantum processors. Notably, the large spin …

Shuttling spins with high fidelity is a key requirement to scale up semiconducting quantum
computers, enabling qubit entanglement over large distances and favoring the integration of …

Holes in silicon quantum dots are promising for spin qubit applications due to the strong
intrinsic spin-orbit coupling. The spin-orbit coupling produces complex hole-spin dynamics …

Efficient control schemes that enable fast, high-fidelity operations are essential for any
practical quantum computation. However, current optimization protocols are intractable due …