The discussion revolves around the Fresnel Equations and their application to polarized light, specifically in the context of proving that light incident at a certain angle results in a polarized reflected beam.
The discussion is ongoing, with participants sharing insights and clarifying concepts related to the problem. Some guidance has been offered regarding the relationship between angles and the nature of the incident and reflected light, but explicit consensus on the approach to proving polarization has not been reached.
Participants note that the incident beam is assumed to be unpolarized, which is a key aspect of the problem. There is also mention of Brewster's angle and its relevance to the reflection scenario being discussed.
You have to start by understanding the problem that is in front of you in terms of physics and not in terms of plugging numbers into equations. ##\theta_p## is just the name they've given to this particular angle of incidence. They could have given it any letter in any language - the vast majority of which won't appear in any formulation of the Fresnel equation.I cannot find a Fresnel equation that has θp in it. And even if I did, I wouldn't know weather to use the perpendicular or parallel reflection equation.
What?transmitted beam's non-incident angle
... that's OK, you don't have to be sure. Being unsure means you have something to be unsure about. If you are drawing a total blank, though, then you just have to go back over your lessons in using the Fresnel equations and about reflection.I'm not sure what sort of reflection is happening here.
Yeah, that would be a much better way of describing it. I believe that this is true in this scenario.What?
You mean the reflected ray is perpendicular to the transmitted one?
Yeah, so the incident beam is unpolarized.Notice that you have to prove that the reflected beam is polarized - this suggests an unpolarized incedent beam doesn't it?