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Post Closed as "Not suitable for this site" by Michael Renardy, Max Horn, ARG, LSpice, Neil Hoffman
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If $f$ a distribution with compact support then there are they exist $m$ and measures $f_\beta$,$|\beta|\leq m$ such that $$f=\sum_{|\beta|\leq m}\frac{\partial^\beta f_\beta}{\partial x^\beta}$$

how to demonstrate this result ?

If $f$ a distribution with compact support then there are $m$ and measures $f_\beta$,$|\beta|\leq m$ such that $$f=\sum_{|\beta|\leq m}\frac{\partial^\beta f_\beta}{\partial x^\beta}$$

how to demonstrate this result ?

If $f$ a distribution with compact support then they exist $m$ and measures $f_\beta$,$|\beta|\leq m$ such that $$f=\sum_{|\beta|\leq m}\frac{\partial^\beta f_\beta}{\partial x^\beta}$$

how to demonstrate this result ?

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If $f$ a distribution with compact support then there are $m$ and are measures $f_\beta$,$|\beta|\leq m$ such that $$f=\sum_{|\beta|\leq m}\frac{\partial^\beta f_\beta}{\partial x^\beta}$$

how to demonstrate this result ?

If $f$ a distribution with compact support then there $m$ and are measures $f_\beta$,$|\beta|\leq m$ such that $$f=\sum_{|\beta|\leq m}\frac{\partial^\beta f_\beta}{\partial x^\beta}$$

how to demonstrate this result ?

If $f$ a distribution with compact support then there are $m$ and measures $f_\beta$,$|\beta|\leq m$ such that $$f=\sum_{|\beta|\leq m}\frac{\partial^\beta f_\beta}{\partial x^\beta}$$

how to demonstrate this result ?

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on distribution with compact support distributions

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