Light-field imaging from position-momentum correlations. Giannella, D., Massaro, G., Stoklasa, B., D'Angelo, M., & Pepe, F. V. Physics Letters A, 494:129298, 2024.
Light-field imaging from position-momentum correlations [link]Paper  doi  abstract   bibtex   
Correlation plenoptic imaging (CPI) is a light-field imaging technique employing intensity correlation measurements to simultaneously detect the spatial distribution and the propagation direction of light. Compared to standard methods, in which light-field images are directly encoded in intensity, CPI provides a significant enhancement of the volumetric reconstruction performance in terms of both achievable depth of field and 3D resolution. In this article, we present a novel CPI configuration where light-field information is encoded in correlations between position and momentum measurements, namely, points on a given object plane and points of the Fourier plane of the imaging lens. Besides the fundamental interest in retrieving the properties of position-momentum correlation, the proposed scheme overcomes practical limitations of previously proposed setups, providing higher axial homogeneity and robustness with respect to the identification of reference planes.
@article{Giannella2024,
title = {Light-field imaging from position-momentum correlations},
journal = {Physics Letters A},
volume = {494},
pages = {129298},
year = {2024},
issn = {0375-9601},
doi = {https://doi.org/10.1016/j.physleta.2023.129298},
url = {https://www.sciencedirect.com/science/article/pii/S0375960123006771},
author = {Davide Giannella and Gianlorenzo Massaro and Bohumil Stoklasa and Milena D'Angelo and Francesco V. Pepe},
keywords = {Light-field imaging, Correlation imaging, Quantum optics, Thermal light},
abstract = {Correlation plenoptic imaging (CPI) is a light-field imaging technique employing intensity correlation measurements to simultaneously detect the spatial distribution and the propagation direction of light. Compared to standard methods, in which light-field images are directly encoded in intensity, CPI provides a significant enhancement of the volumetric reconstruction performance in terms of both achievable depth of field and 3D resolution. In this article, we present a novel CPI configuration where light-field information is encoded in correlations between position and momentum measurements, namely, points on a given object plane and points of the Fourier plane of the imaging lens. Besides the fundamental interest in retrieving the properties of position-momentum correlation, the proposed scheme overcomes practical limitations of previously proposed setups, providing higher axial homogeneity and robustness with respect to the identification of reference planes.}
}

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