Semiconductor-based geometrical quantum gates
We propose an implementation scheme for holonomic, ie, geometrical, quantum information
processing based on semiconductor nanostructures. Our quantum hardware consists of
coupled semiconductor macroatoms addressed/controlled by ultrafast multicolor laser-pulse
sequences. More specifically, logical qubits are encoded in excitonic states with different
spin polarizations and manipulated by adiabatic time control of the laser amplitudes. The
two-qubit gate is realized in a geometric fashion by exploiting dipole-dipole coupling …
processing based on semiconductor nanostructures. Our quantum hardware consists of
coupled semiconductor macroatoms addressed/controlled by ultrafast multicolor laser-pulse
sequences. More specifically, logical qubits are encoded in excitonic states with different
spin polarizations and manipulated by adiabatic time control of the laser amplitudes. The
two-qubit gate is realized in a geometric fashion by exploiting dipole-dipole coupling …
Abstract
We propose an implementation scheme for holonomic, ie, geometrical, quantum information processing based on semiconductor nanostructures. Our quantum hardware consists of coupled semiconductor macroatoms addressed/controlled by ultrafast multicolor laser-pulse sequences. More specifically, logical qubits are encoded in excitonic states with different spin polarizations and manipulated by adiabatic time control of the laser amplitudes. The two-qubit gate is realized in a geometric fashion by exploiting dipole-dipole coupling between excitons in neighboring quantum dots.
American Physical Society
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