yungman
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Let [itex]\;P(R,\theta,\phi)\;[/itex] be function at each point defined by [itex]R,\theta,\phi[/itex] in spherical coordinates.
Let [itex]\;P_{max} \;[/itex] be the maximum value of [itex]\;P(R,\theta,\phi)\;[/itex] in the closed sphere S.
[tex]\hbox {Let }\;F(R,\theta,\phi)=\frac {P(R,\theta,\phi)}{P_{max}}[/tex]
Which is the normalized value of [itex]\;P(R,\theta,\phi)\; \hbox {where } \; F_{max} = 1[/itex].
My question is whether:
[tex]\frac {P(R,\theta,\phi)}{\oint_S P(R,\theta,\phi) d\;S}\; =\; \frac {F(R,\theta,\phi)}{\oint_S F(R,\theta,\phi) d\;S}[/tex]
I thought
[tex]\frac {\left [\frac {P(R,\theta,\phi)}{P_{max}}\right ]} {\left [\frac {\oint_S P(R,\theta,\phi) d\;S}{P_{max}}\right ]} \;\hbox { not equal to } \; \frac {F(R,\theta,\phi)}{\oint_S F(R,\theta,\phi) d\;S}[/tex]
Unless we can consider [itex]\;P_{max}\;[/itex] is a constant and can be moved inside the integration. So the question is whether [itex]\;P_{max}\;[/itex] is a constant? I am not sure.
Please help.
Thanks
Alan
Let [itex]\;P_{max} \;[/itex] be the maximum value of [itex]\;P(R,\theta,\phi)\;[/itex] in the closed sphere S.
[tex]\hbox {Let }\;F(R,\theta,\phi)=\frac {P(R,\theta,\phi)}{P_{max}}[/tex]
Which is the normalized value of [itex]\;P(R,\theta,\phi)\; \hbox {where } \; F_{max} = 1[/itex].
My question is whether:
[tex]\frac {P(R,\theta,\phi)}{\oint_S P(R,\theta,\phi) d\;S}\; =\; \frac {F(R,\theta,\phi)}{\oint_S F(R,\theta,\phi) d\;S}[/tex]
I thought
[tex]\frac {\left [\frac {P(R,\theta,\phi)}{P_{max}}\right ]} {\left [\frac {\oint_S P(R,\theta,\phi) d\;S}{P_{max}}\right ]} \;\hbox { not equal to } \; \frac {F(R,\theta,\phi)}{\oint_S F(R,\theta,\phi) d\;S}[/tex]
Unless we can consider [itex]\;P_{max}\;[/itex] is a constant and can be moved inside the integration. So the question is whether [itex]\;P_{max}\;[/itex] is a constant? I am not sure.
Please help.
Thanks
Alan
Last edited: