Thesis, internship, and post-doc opportunities
[Thesis]
Theoretical study of a single quantum dot in a photonic wire : basics and applications to quantum information processing
Offer N°: 13713
Start date: 1 Oct 2013
Artificial atoms coupled to a one dimensional (1D) photonic system are known as « 1D-atoms ». Experimentally, 1D atoms can for instance be fabricated by placing a single semiconductor quantum dot in a photonic nanowire. The optical properties of 1D atoms display a unique sensitivity to the presence of a single photon, which makes them very attractive in view of the development of quantum photonic devices, such as logical gates or single photon transistors.
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Close[Thesis]
Theoretical study of a single quantum dot in a photonic wire : basics and applications to quantum information processing
Offer N°: 13713
Start date: 1 Oct 2013
Artificial atoms coupled to a one dimensional (1D) photonic system are known as « 1D-atoms ». Experimentally, 1D atoms can for instance be fabricated by placing a single semiconductor quantum dot in a photonic nanowire. The optical properties of 1D atoms display a unique sensitivity to the presence of a single photon, which makes them very attractive in view of the development of quantum photonic devices, such as logical gates or single photon transistors.
[Thesis]
Spin manipulation by microwave pulses in graphene-based lateral spin-valves
Offer N°: 13711
Start date: 1 Oct 2013
Spin manipulation in carbon-based materials, especially graphene, is much more interesting for spin logic than the traditional metals and semiconductors. Indeed, due to weak spin-orbit and hyperfine couplings, carbon materials possess very long spin relaxation distances: spin currents have thus been shown to travel macroscopic distances in graphene and carbon nanotubes.
[Thesis]
Spin manipulation by microwave pulses in graphene-based lateral spin-valves
Offer N°: 13711
Start date: 1 Oct 2013
Spin manipulation in carbon-based materials, especially graphene, is much more interesting for spin logic than the traditional metals and semiconductors. Indeed, due to weak spin-orbit and hyperfine couplings, carbon materials possess very long spin relaxation distances: spin currents have thus been shown to travel macroscopic distances in graphene and carbon nanotubes.
