Correlated imaging through atmospheric turbulence
arXiv:1005.5011 · doi:10.1103/PhysRevA.82.033817
Abstract
Correlated imaging through atmospheric turbulence is studied, and the analytical expressions describing turbulence effects on image resolution are derived. Compared with direct imaging, correlated imaging can reduce the influence of turbulence to a certain extent and reconstruct high-resolution images. The result is backed up by numerical simulations, in which turbulence-induced phase perturbations are simulated by random phase screens inserting propagation paths.
4 pages, 4 figures
References in corpus (1)
Cited by in corpus (18)
- Ghost imaging lidar via sparsity constraints
- Three-dimensional ghost imaging ladar
- Experimental comparison of single-pixel imaging algorithms
- Time-correspondence differential ghost imaging
- Image quality in double- and triple-intensity ghost imaging with classical partially polarized light
- SPI-GAN: Towards Single-Pixel Imaging through Generative Adversarial Network
- Ghost imaging with the human eye
- Proof-of-principle experimental demonstration of quantum secure imaging based on quantum key distribution
- Imaging around corners with single-pixel detector by computational ghost imaging
- Experimental observation of three-photon superbunching in linear optical system
- Fourth-order moment of the light field in atmosphere
- Turbulence Mitigation in Phase-Conjugated Two-Photon Imaging
- Fourth-order moment of the light field in atmosphere for moderate and strong turbulence
- Light Propagation through Space-Time Non-Markovian Random Media
- Error-Control-Coding Assisted Imaging
- Can a conventional optical camera realize turbulence-free imaging?
- Quantum Imaging of High-Dimensional Hilbert Spaces with Radon Transform
- A numerical investigation on the convergence issues for ghost imaging