We propose a scheme for dynamically creating orbitally entangled electron-hole pairs through a time-dependent variation of the electrical potential in a mesoscopic conductor. The time-dependent potential generates a superposition of electron-hole pairs in two different orbital regions of the conductor, a Mach-Zehnder interferometer in the quantum Hall regime. The orbital entanglement is detected via violation of a Bell inequality, formulated in terms of zero-frequency current noise. Adiabatic cycling of the potential, both in the weak and strong amplitude limit, is considered
We theoretically investigate questions regarding the controlled emission and entanglement of individ...
We present a proposal for the experimental observation of energy-time entanglement of quasiparticles...
Recent experiments have demonstrated subdecoherence time control of individual single-electron orbit...
We propose a spin-independent scheme to generate and detect two-particle entanglement in a mesoscopi...
We present an investigation of orbital entanglement in mesoscopic conductors. Several schemes for ge...
We present an investigation of orbital entanglement in mesoscopic conductors. Several schemes for ge...
In this thesis, we investigate electronic transport in mesoscopic conductors. In these systems, quan...
We discuss orbital entanglement in mesoscopic conductors, focusing on the effect of dephasing. The e...
e propose a method for the optimal time-controlled generation of entangled itinerant particles, usin...
VK: Low Temperature LaboratoryThe entanglement of coherently split electron-hole pairs in an electro...
We show that current correlations at the exit ports of a beam sphtter can be used to detect electron...
We study the many-body electronic state created by a time-dependent drive of a mesoscopic contact. T...
We propose a dynamical scheme for measuring the full-counting statistics in a mesoscopic conductor u...
We review our recent proposals for the on-demand generation of entangled few-electron states using d...
A time-dependent electromagnetic field creates electron-hole excitations in a Fermi sea at low tempe...
We theoretically investigate questions regarding the controlled emission and entanglement of individ...
We present a proposal for the experimental observation of energy-time entanglement of quasiparticles...
Recent experiments have demonstrated subdecoherence time control of individual single-electron orbit...
We propose a spin-independent scheme to generate and detect two-particle entanglement in a mesoscopi...
We present an investigation of orbital entanglement in mesoscopic conductors. Several schemes for ge...
We present an investigation of orbital entanglement in mesoscopic conductors. Several schemes for ge...
In this thesis, we investigate electronic transport in mesoscopic conductors. In these systems, quan...
We discuss orbital entanglement in mesoscopic conductors, focusing on the effect of dephasing. The e...
e propose a method for the optimal time-controlled generation of entangled itinerant particles, usin...
VK: Low Temperature LaboratoryThe entanglement of coherently split electron-hole pairs in an electro...
We show that current correlations at the exit ports of a beam sphtter can be used to detect electron...
We study the many-body electronic state created by a time-dependent drive of a mesoscopic contact. T...
We propose a dynamical scheme for measuring the full-counting statistics in a mesoscopic conductor u...
We review our recent proposals for the on-demand generation of entangled few-electron states using d...
A time-dependent electromagnetic field creates electron-hole excitations in a Fermi sea at low tempe...
We theoretically investigate questions regarding the controlled emission and entanglement of individ...
We present a proposal for the experimental observation of energy-time entanglement of quasiparticles...
Recent experiments have demonstrated subdecoherence time control of individual single-electron orbit...