We propose a scheme for the deterministic generation of steady-state entanglement between the two nuclear spin ensembles in an electrically defined double quantum dot. Because of quantum interference in the collective coupling to the electronic degrees of freedom, the nuclear system is actively driven into a two-mode squeezedlike target state. The entanglement buildup is accompanied by a self-polarization of the nuclear spins towards large Overhauser field gradients. Moreover, the feedback between the electronic and nuclear dynamics leads to multistability and criticality in the steady-state solutions
Transport through spin-blockaded quantum dots provides a means for electrical control and detection ...
We propose schemes for generating spatially-separated spin entanglement in systems of two quantum do...
Control of electron spin decoherence in contact with a mesoscopic bath of many interacting nuclear s...
We theoretically study the nuclear spin dynamics driven by electron transport and hyperfine interact...
We present a scheme for achieving coherent spin squeezing of nuclear spin states in semiconductor qu...
We consider, in the framework of the central spin s=1/2 model, driven dynamics of two electrons in a...
We observe multiple stable states of nuclear polarization and nuclear self-tuning over a large range...
We numerically study the hyperfine induced nuclear spin dynamics in a system of two coupled quantum ...
We theoretically model a nuclear-state preparation scheme that increases the coherence time of a two...
We study the time evolution of entanglement of two spins in an anisotropically coupled quantum dot i...
Spin degrees of freedom have been extensively explored in the context of quantum information process...
Early experiments on spin-blockaded double quantum dots revealed robust, large-amplitude current osc...
We propose a protocol for the deterministic generation of entanglement between two ensembles of nucl...
Recently, an implementation of a universal set of one- and two-quantum-bit gates for quantum computa...
In a coupled double-quantum-dot system, we present a theory for the interplay between electron and n...
Transport through spin-blockaded quantum dots provides a means for electrical control and detection ...
We propose schemes for generating spatially-separated spin entanglement in systems of two quantum do...
Control of electron spin decoherence in contact with a mesoscopic bath of many interacting nuclear s...
We theoretically study the nuclear spin dynamics driven by electron transport and hyperfine interact...
We present a scheme for achieving coherent spin squeezing of nuclear spin states in semiconductor qu...
We consider, in the framework of the central spin s=1/2 model, driven dynamics of two electrons in a...
We observe multiple stable states of nuclear polarization and nuclear self-tuning over a large range...
We numerically study the hyperfine induced nuclear spin dynamics in a system of two coupled quantum ...
We theoretically model a nuclear-state preparation scheme that increases the coherence time of a two...
We study the time evolution of entanglement of two spins in an anisotropically coupled quantum dot i...
Spin degrees of freedom have been extensively explored in the context of quantum information process...
Early experiments on spin-blockaded double quantum dots revealed robust, large-amplitude current osc...
We propose a protocol for the deterministic generation of entanglement between two ensembles of nucl...
Recently, an implementation of a universal set of one- and two-quantum-bit gates for quantum computa...
In a coupled double-quantum-dot system, we present a theory for the interplay between electron and n...
Transport through spin-blockaded quantum dots provides a means for electrical control and detection ...
We propose schemes for generating spatially-separated spin entanglement in systems of two quantum do...
Control of electron spin decoherence in contact with a mesoscopic bath of many interacting nuclear s...