e propose a method for the optimal time-controlled generation of entangled itinerant particles, using on-demand sources in a conductor in the quantum Hall regime. This entanglement pump is realized by applying periodic, tailored voltage pulses to pairs of quantum dots or quantum point contacts. We show that the pump can produce orbital Bell pairs of both electrons and holes at the optimal rate of half a pair per pumping cycle. The entanglement can be detected by a violation of a Bell inequality formulated in terms of low-frequency current cross correlations
For scalable applications of optical quantum information it is desirable to have a well controlled s...
We discuss a mechanism for generating a maximum entangled state (GHZ) in a coupled quantum dots syst...
We present the results of recent experiments designed to manipulate the splitting in quantum dots, t...
We propose a scheme for dynamically creating orbitally entangled electron-hole pairs through a time-...
We review our recent proposals for the on-demand generation of entangled few-electron states using d...
Recent experiments have demonstrated subdecoherence time control of individual single-electron orbit...
The SI unit system has recently moved away from artificial definitions of units to the elegant quant...
International audienceWe propose a source of purely electronic energy-entangled states implemented i...
We propose a spin-independent scheme to generate and detect two-particle entanglement in a mesoscopi...
Quantum information technology promises to offer incredible advantages over current digital systems,...
We report on the performance of electrically-injected pyramidal quantum dots (PQDs) in terms of sing...
We show that a large entangled current can be produced from a very simple passive device: a cluster ...
The aim is to link the unit ampere to the elementary charge e, a true invariant of nature. The high ...
A time-dependent electromagnetic field creates electron-hole excitations in a Fermi sea at low tempe...
We propose a solid-state quantum structure capable of generating Einstein-Podolsky-Rosen (EPR) elect...
For scalable applications of optical quantum information it is desirable to have a well controlled s...
We discuss a mechanism for generating a maximum entangled state (GHZ) in a coupled quantum dots syst...
We present the results of recent experiments designed to manipulate the splitting in quantum dots, t...
We propose a scheme for dynamically creating orbitally entangled electron-hole pairs through a time-...
We review our recent proposals for the on-demand generation of entangled few-electron states using d...
Recent experiments have demonstrated subdecoherence time control of individual single-electron orbit...
The SI unit system has recently moved away from artificial definitions of units to the elegant quant...
International audienceWe propose a source of purely electronic energy-entangled states implemented i...
We propose a spin-independent scheme to generate and detect two-particle entanglement in a mesoscopi...
Quantum information technology promises to offer incredible advantages over current digital systems,...
We report on the performance of electrically-injected pyramidal quantum dots (PQDs) in terms of sing...
We show that a large entangled current can be produced from a very simple passive device: a cluster ...
The aim is to link the unit ampere to the elementary charge e, a true invariant of nature. The high ...
A time-dependent electromagnetic field creates electron-hole excitations in a Fermi sea at low tempe...
We propose a solid-state quantum structure capable of generating Einstein-Podolsky-Rosen (EPR) elect...
For scalable applications of optical quantum information it is desirable to have a well controlled s...
We discuss a mechanism for generating a maximum entangled state (GHZ) in a coupled quantum dots syst...
We present the results of recent experiments designed to manipulate the splitting in quantum dots, t...