Generalization of Fresnel Equations?

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In summary, the conversation is about whether there is a generalization to the Fresnel equations, which calculate the reflective and transmissive coefficients for a polarized incident ray. The question is whether there is a formula that can calculate these constants for an unpolarized incident ray, which is a superposition of two polarized rays. The response is that the reflection off an anisotropic medium is the most general case.
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Abtinnn
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Hi guys!

I was wondering if there is a generalization to the Fresnel equations. Those equations calculate the reflective and transmissive coefficients, but it depends on the polarization of the incident ray. Is there a formula that could calculate those constants for an unpolarized incident ray? Thank you!
 
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An unpolarized ray is just the sum of the two polarizations in equal amounts. The two special cases and their superpositions allow to solve every problem, there is nothing to generalize.
 
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An unpolarized ray is a superposition of two polarized incident rays.
 
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oh!
Sorry I was too dumb to realize that!
Thank you! :)
 

1. What are the Fresnel Equations?

The Fresnel Equations are a set of mathematical equations that describe how light waves are reflected and transmitted at the interface between two media with different refractive indices. They were developed by French physicist Augustin-Jean Fresnel in the early 19th century.

2. How are the Fresnel Equations used in science?

The Fresnel Equations are used in many fields of science, including optics, photonics, and materials science. They are particularly important in the study of light and its behavior at interfaces, which has practical applications in areas such as fiber optics, solar cells, and anti-reflective coatings.

3. What is the generalization of the Fresnel Equations?

The generalization of the Fresnel Equations refers to the extension of these equations to more complex scenarios, such as when the interface between two media is not a simple flat surface. This can include scenarios such as curved surfaces, multilayered structures, and anisotropic materials.

4. Why is the generalization of the Fresnel Equations important?

The generalization of the Fresnel Equations allows for a more accurate and comprehensive understanding of how light behaves at interfaces in a wider range of scenarios. This is important for developing new technologies and materials that rely on controlling and manipulating light, as well as for furthering our understanding of the fundamental properties of light.

5. What are some examples of applications of the generalization of the Fresnel Equations?

Some examples of applications of the generalization of the Fresnel Equations include designing optical components such as lenses, mirrors, and filters for specific purposes, developing methods for controlling the polarization of light, and studying the behavior of light at interfaces in biological systems and in nanoscale structures.

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