In a single annealed InGaAs quantum dot, the in-plane hole g-factor anisotropy is dominated by valence-band mixing, and this anisotropy can be exploited via magnetic field angle and excitation polarization to improve spin-photon entanglement.
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The impact of hole $g$-factor anisotropy on spin-photon entanglement generation with InGaAs quantum dots
In a single annealed InGaAs quantum dot, the in-plane hole g-factor anisotropy is dominated by valence-band mixing, and this anisotropy can be exploited via magnetic field angle and excitation polarization to improve spin-photon entanglement.