Initial Lab Frame 4-momentum components: Difference between revisions

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| style="background: gray"      | <math>\Longrightarrow E\equiv \sqrt{(11000 MeV)^2+(.511 MeV)^2}+.511MeV\approx 11000.511 MeV</math>
| style="background: gray"      | <math>\Longrightarrow E\equiv \sqrt{(11000 MeV)^2+(.511 MeV)^2}+.511MeV\approx 11000.511 MeV</math>
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[[VanWasshenova_Thesis#Initial_4-momentum_Components|<math>\triangle </math>]]
[[Initial_CM_Frame_4-momentum_components|<math>\vartriangleright </math>]]
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Latest revision as of 18:53, 15 May 2018

[math]\displaystyle{ \underline{\textbf{Navigation}} }[/math]

[math]\displaystyle{ \vartriangleleft }[/math] [math]\displaystyle{ \triangle }[/math] [math]\displaystyle{ \vartriangleright }[/math]


Initial Lab Frame 4-momentum components

Figure 1: Definition of variables in the Lab Frame


Begining with the assumption that the incoming electron, p1, has momentum of 11000 MeV in the positive z direction.


[math]\displaystyle{ \vec p_{1(z)}\equiv \vec p_{1}=11000 MeV \widehat {z} }[/math]


We can also assume the Moller electron, p2, is initially at rest


[math]\displaystyle{ \vec p_{2}\equiv 0 }[/math]


This gives the total energy in this frame as


[math]\displaystyle{ E\equiv E_1+E_2 }[/math]


where,

[math]\displaystyle{ E\equiv \sqrt{p^2+m^2} }[/math]


This gives,

[math]\displaystyle{ E\equiv \sqrt{(p_{1})^2+(m_{1})^2}+m_{2} }[/math]


[math]\displaystyle{ \Longrightarrow E\equiv \sqrt{(11000 MeV)^2+(.511 MeV)^2}+.511MeV\approx 11000.511 MeV }[/math]




[math]\displaystyle{ \underline{\textbf{Navigation}} }[/math]

[math]\displaystyle{ \vartriangleleft }[/math] [math]\displaystyle{ \triangle }[/math] [math]\displaystyle{ \vartriangleright }[/math]