TFM
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[SOLVED] Rearranging a Relativity Equation
Rewrite equation:
[tex]f = \sqrt{\frac{c + u}{c - u}}f_0[/tex]
to find the relative velocity u between the electromagnetic source and an observer in terms of the ratio of the observed frequency and the source frequency of light.
What relative velocity will produce a 3.0 decrease in frequency and
Rearangement of:
[tex]f = \sqrt{\frac{c + u}{c - u}}f_0[/tex]
I seem to get stuck when trying to rearrange the equation:
[tex]f = \sqrt{\frac{c + u}{c - u}}f_0[/tex]
[tex]\frac{f}{f_0} = \sqrt{\frac{c + u}{c - u}}[/tex]
[tex](\frac{f}{f_0})^2 = \frac{c + u}{c - u}[/tex]
[tex](c - u)(\frac{f}{f_0})^2 = c + u[/tex]
But I am not sure where to go from here.
Any suggestions?
TFM
Homework Statement
Rewrite equation:
[tex]f = \sqrt{\frac{c + u}{c - u}}f_0[/tex]
to find the relative velocity u between the electromagnetic source and an observer in terms of the ratio of the observed frequency and the source frequency of light.
What relative velocity will produce a 3.0 decrease in frequency and
Homework Equations
Rearangement of:
[tex]f = \sqrt{\frac{c + u}{c - u}}f_0[/tex]
The Attempt at a Solution
I seem to get stuck when trying to rearrange the equation:
[tex]f = \sqrt{\frac{c + u}{c - u}}f_0[/tex]
[tex]\frac{f}{f_0} = \sqrt{\frac{c + u}{c - u}}[/tex]
[tex](\frac{f}{f_0})^2 = \frac{c + u}{c - u}[/tex]
[tex](c - u)(\frac{f}{f_0})^2 = c + u[/tex]
But I am not sure where to go from here.
Any suggestions?
TFM