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OpenStudy (anonymous):
OpenStudy (anonymous):
i think none of the above, hbu guys??
OpenStudy (anonymous):
i think I and III
OpenStudy (anonymous):
why???
OpenStudy (anonymous):
@UnkleRhaukus
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OpenStudy (anonymous):
I got all of them nomalized!!
OpenStudy (unklerhaukus):
None
OpenStudy (anonymous):
why ?
OpenStudy (unklerhaukus):
the integral over the the entire domain for a normalised wave function equals one,
OpenStudy (anonymous):
yes., i did, and i got I,II,III, and IV are normalized
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OpenStudy (unklerhaukus):
how did you get that?
OpenStudy (anonymous):
for example.., for first one
\[\int\limits_{-0.5}^{0.5} dx |\psi(x)|^{2} = 1 \]
\[\int\limits\limits_{-0.5}^{0.5} dx |e^{ix}|^{2} = \int\limits\limits_{-0.5}^{0.5} dx . (1) = x |_{-0.5}^{0.5} = 0.5 - (-0,5) = 1\]
OpenStudy (unklerhaukus):
oh, right, i forgot to take the mod square
OpenStudy (anonymous):
can you help me for
I am shining light of 532 nm wavelength perpendicularly onto a one-dimensional array of scatterers with spacing (s=1.5) microns. I am looking at the back-scattered light on a screen a long distance away from the scattering array. How many diffraction "spots" should I see on the screen? Please enter an integer number.