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http://www.pas.rochester.edu/~korotkov/
Very recently we have shown [24], [28] that if a source generating a random beam is electromagnetic then its polarization can affect the shifts of spectral profiles of generated fields in the far-zone. Previously this effect was attributed only to coherence properties of sources.
DR. OLGA KOROTKOVA
oh yeay baby, we need more researchers like her IMHO.
24. J. Pu, O. Korotkova and E. Wolf, “Invariance and non-invariance of the spectrum and of the degree of polarization of stochastic electromagnetic beams on
propagation”, Opt. Lett. 31, 2097-2099 (2006).
It has been known for some time that the spectrum of light may change on propagation, even in free space. The theory of this phenomena was developed within the framework of scalar theory. In this paper we generalize it to electromagnetic beams, generated by planar, secondary, stochastic sources. We also derive an electromagnetic analog of the so-called scaling law. When this law is satisfied the normalized spectrum of the beam is the same throughout the far zone and is the same as the normalized source spectrum. We illustrate our analysis by an example.
28. O. Korotkova, J. Pu and E. Wolf, “Effects of source polarization and source coherence on far-zone spectra of stochastic beams" (submitted to
Phys. Rev. E).
It was shown some years ago that the spectrum of a stochastic scalar field depends not only on the source spectrum but also on the degree of coherence of the source. In this paper we show that there are electromagnetic sources, whose degree of polarization also affects the spectrum of the radiated field. We illustrate the analysis by diagrams which show the far-zone spectra of some stochastic electromagnetic beams generated by sources of different states of coherence and different degrees of polarization. The spectra of the radiated field depend both on coherence properties of the source and its degree of polarization and are found to be different in different directions of observation.
Very recently we have shown [24], [28] that if a source generating a random beam is electromagnetic then its polarization can affect the shifts of spectral profiles of generated fields in the far-zone. Previously this effect was attributed only to coherence properties of sources.
DR. OLGA KOROTKOVA
oh yeay baby, we need more researchers like her IMHO.
24. J. Pu, O. Korotkova and E. Wolf, “Invariance and non-invariance of the spectrum and of the degree of polarization of stochastic electromagnetic beams on
propagation”, Opt. Lett. 31, 2097-2099 (2006).
It has been known for some time that the spectrum of light may change on propagation, even in free space. The theory of this phenomena was developed within the framework of scalar theory. In this paper we generalize it to electromagnetic beams, generated by planar, secondary, stochastic sources. We also derive an electromagnetic analog of the so-called scaling law. When this law is satisfied the normalized spectrum of the beam is the same throughout the far zone and is the same as the normalized source spectrum. We illustrate our analysis by an example.
28. O. Korotkova, J. Pu and E. Wolf, “Effects of source polarization and source coherence on far-zone spectra of stochastic beams" (submitted to
Phys. Rev. E).
It was shown some years ago that the spectrum of a stochastic scalar field depends not only on the source spectrum but also on the degree of coherence of the source. In this paper we show that there are electromagnetic sources, whose degree of polarization also affects the spectrum of the radiated field. We illustrate the analysis by diagrams which show the far-zone spectra of some stochastic electromagnetic beams generated by sources of different states of coherence and different degrees of polarization. The spectra of the radiated field depend both on coherence properties of the source and its degree of polarization and are found to be different in different directions of observation.