The spin degree of freedom of an electron or a nucleus is one of the most basic properties of
nature and functions as an excellent qubit, as it provides a natural two-level system that is …

Once the periodic properties of elements were unveiled, chemical behaviour could be
understood in terms of the valence of atoms. Ideally, this rationale would extend to quantum …

Spin qubits composed of either one or three electrons are realized in a quantum dot formed
at a Si/SiO 2 interface in isotopically enriched silicon. Using pulsed electron-spin resonance …

We theoretically model the spin-orbit interaction in silicon quantum dot devices, relevant for
quantum computation and spintronics. Our model is based on a modified effective mass …

In the twenty-first century, nanotechnology has become cutting-edge technology. It is
interdisciplinary and multidisciplinary, covering numerous fields such as medicine …

We show that systematic full configuration-interaction (FCI) calculations enable prediction of
the energy spectra and the intrinsic spatial and spin structures of the many-body wave …

It is demonstrated that exact diagonalization of the microscopic many-body Hamiltonian via
systematic full configuration-interaction (FCI) calculations is able to predict the spectra as a …

Interactions between electrons can strongly affect the shape and functionality of
multielectron quantum dots. The resulting charge distributions can be localized, as in the …

In this paper, we present a computational procedure that utilizes real-space grids to obtain
high precision approximations of electrostatically confined few-electron states such as those …

The valley degree of freedom presents challenges and opportunities for silicon spin qubits.
An important consideration for singlet-triplet states is the presence of two distinct triplets …