raisin_raisin
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Hey, I know this is easy I just can't remember how to do it.
[tex]y(0)=0[/tex]
and [tex]By''+y'=A[/tex] A,B constants.
So complementary solution [tex]Bm^{2}+m=0 \\ \text{ therefore } m=0, \frac{-1}{B}[/tex]
therfore [tex]y_{C} = C_{1}+C_{2}e^{-t/B}[/tex]
Not sure what to do for particular solution though because substituting in constant doesn't give you anything
The final answer is:
[tex]y= A[t+B(e^{-t/B}-1][/tex]
Thanks
[tex]y(0)=0[/tex]
and [tex]By''+y'=A[/tex] A,B constants.
So complementary solution [tex]Bm^{2}+m=0 \\ \text{ therefore } m=0, \frac{-1}{B}[/tex]
therfore [tex]y_{C} = C_{1}+C_{2}e^{-t/B}[/tex]
Not sure what to do for particular solution though because substituting in constant doesn't give you anything
The final answer is:
[tex]y= A[t+B(e^{-t/B}-1][/tex]
Thanks