Optical homodyne detection in view of the joint probability distribution
Toru Kawakubo, Katsuji Yamamoto
Abstract
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Toru Kawakubo, Katsuji Yamamoto
Abstract
Open-access reader
Optical homodyne detection is examined in view of the joint probability distribution. The usual view is that the relative phase between independent laser fields is localized by photon-number measurements in interference experiments such as homodyne detection. This is why operationally coherent states for laser fields are used in the description of homodyne detection and optical quantum-state tomography. Here, we elucidate these situations by considering the joint probability distribution and the invariance of homodyne detection under the phase transformation of optical fields.
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Optical homodyne detection is examined in view of the joint probability distribution. The usual view is that the relative phase between independent laser fields is localized by photon-number measurements in interference experiments such as homodyne detection. This is why operationally coherent states for laser fields are used in the description of homodyne detection and optical quantum-state tomography. Here, we elucidate these situations by considering the joint probability distribution and the invariance of homodyne detection under the phase transformation of optical fields.
Key concepts: Direct-conversion receiver, Homodyne detection, Joint probability distribution, Interference (communication), Probability distribution, Physics, Joint (building), Optics