Does the Parameterization Affect the Pullback of a Constant 1-Form?

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SUMMARY

The evaluation of the pullback of a constant 1-form \( k_{1}dx + k_{2}dy + k_{3}dz \) over a directed line segment from point \(\bold{r}\) to point \(\bold{s}\) is independent of the linear parameterization used. The parameterization is expressed as \((x,y,z) = \bold{r} + t(\bold{s}-\bold{r})\). The coefficients of the 1-form remain constant regardless of the chosen parameterization, confirming that the pullback's evaluation is consistent across different linear mappings.

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Show that the evaluation of the pullback of a constant 1-form [tex]k_{1}dx + k_{2}dy + k_{3}dz[/tex] over the directed line segment from [tex]\bold{r}[/tex] to [tex]\bold{s}[/tex] does not depend on which linear parameterization is chosen.

So [tex](x,y,z) = \bold{r} + t(\bold{s}-\bold{r})[/tex]. Then what?
 
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tronter said:
Show that the evaluation of the pullback of a constant 1-form [tex]k_{1}dx + k_{2}dy + k_{3}dz[/tex] over the directed line segment from [tex]\bold{r}[/tex] to [tex]\bold{s}[/tex] does not depend on which linear parameterization is chosen.

So [tex](x,y,z) = \bold{r} + t(\bold{s}-\bold{r})[/tex]. Then what?



Τhen, you observe that the coefficients of the 1-form are constant, and will remain so
no matter what (x,y,z) you choose.


Ps. Yeap, I am answering old questions.
Got time on my hands and need to kill it... Is that so bad?
 

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