Silicon spin qubits have emerged as a promising path to large-scale quantum processors. In
this prospect, the development of scalable qubit readout schemes involving a minimal …

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 …

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 …

Long coherence time and compatibility with semiconductor fabrication make spin qubits in
silicon an attractive platform for quantum computing. In recent years, hole spin qubits are …

We develop a tight-binding model based on linear combination of atomic orbitals (LCAO)
methods to describe the electronic structure of arrays of acceptors, where the underlying …

In this paper, we compute the electronic structure of acceptor clusters in silicon by using
three different methods to take into account electron correlations: the full configuration …

We consider the interaction between acceptor pairs in doped semiconductors in the limit of
large interacceptor separation relevant for low doping densities. Modeling individual …

Hole spins in semiconductor quantum dots or bound to acceptor impurities show promise as
potential qubits, partly because of their weak and anisotropic hyperfine couplings to …

While traditionally considered a deleterious effect in quantum dot spin qubits, the spin‐orbit
interaction is recently being revisited as it allows for rapid coherent control by on‐chip AC …

Silicon is the most important semiconducting material, being present in all the electronic
devices around us. Silicon has also drawn attention for its very interesting properties for the …