The qubit is the fundamental building block of a quantum computer. We fabricate a qubit in a
silicon double-quantum dot with an integrated micromagnet in which the qubit basis states …

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 …

Relaxation and dephasing of hole spins are measured in a gate-defined Ge/Si nanowire
double quantum dot using a fast pulsed-gate method and dispersive readout. An …

We present two strategies for performing two-qubit operations on the electron spins of an
exchange-coupled pair of donors in silicon, using the ability to set the donor nuclear spins in …

We theoretically analyze measurements of the transient field leaving a cavity as a tool for
studying non-Markovian dynamics in cavity quantum electrodynamics (QED). Combined …

The manipulation of single spins in double quantum dots by making use of the exchange
interaction and a highly inhomogeneous magnetic field was discussed in Coish and Loss …

We study the dynamics of entanglement of two electron spins in two quantum dots, in which
each electron is interacting with its nuclear spin environment. Focusing on the case of …

Electron spin qubits are a promising platform for quantum computation. Environmental noise
impedes coherent operations by limiting the qubit relaxation (T 1) and dephasing (T ϕ) …

We review recent theoretical results for hole spins influenced by spin-orbit coupling and
Coulomb interaction in two-dimensional quantum wells as well as the decoherence of single …

Using high-level quantum chemistry calculations, we predict various ultrafast laser-induced
spin dynamics scenarios in clusters Fe m Bz n (m, n= 1, 2) based on the nonadiabatic Λ …