The Oliver E. Buckley Prize was awarded to Gwendal for his groundbreaking experiments that observed anyonic braiding statistics in the fractional quantum Hall effect, thus establishing the significance of topological excitations in two-dimensions.
This technique provides a versatile tool for designing plasmonic circuits, offering the ability to tailor plasmon speed through local parameters, minimise unwanted plasmon excitation in adjacent circuits, and enable the precise selection of electron-channel plasmon eigenstates in quantum interferometers.
These results suggest revisiting the neutral mode status, highlight the limitations of HOM interferometry in hole-conjugate phases and provide a path to explore complex FQH states that host neutral or non-Abelian modes.
The latter opens the way to the detection of non-classical electromagnetic fields, such as squeezed or Fock states.
The latter opens the way to the detection of non-classical electromagnetic fields, such as squeezed or Fock states.
This well-deserved distinction highlights Gwendal’s remarkable career in the service of research and information processing.
The latter opens the way to the detection of non-classical electromagnetic fields, such as squeezed or Fock states.
Flying qubits encode quantum information in propagating modes instead of stationary discrete states.
The latter opens the way to the detection of non-classical electromagnetic fields, such as squeezed or Fock states.
This well-deserved distinction highlights Gwendal’s remarkable career in the service of research and information processing.