Hi
Does anyone know how this can be done?
. . . . .\(\displaystyle \left[ - \dfrac{\tilde{L}_Y\, I_1}{(1\, -\, C_1)\, \tilde{L}_i\, +\, I_1\, \tilde{L}_Y}\, +\, 1\right]\, \large{I_2\, d\, \epsilon^I}\)\(\displaystyle \, =\, \dfrac{1}{ \left(1\, +\, \dfrac{I_1\, \tilde{L}_Y}{(1\, -\, C_1)\, \tilde{L}_i}\right)}\, \large{I_2\, d\, \epsilon^I}\)
I can get to (-(LyI1)/(1-c)(Li) + 1) but I feel like this is in the wrong direction. Any help would be appreciated.
Does anyone know how this can be done?
. . . . .\(\displaystyle \left[ - \dfrac{\tilde{L}_Y\, I_1}{(1\, -\, C_1)\, \tilde{L}_i\, +\, I_1\, \tilde{L}_Y}\, +\, 1\right]\, \large{I_2\, d\, \epsilon^I}\)\(\displaystyle \, =\, \dfrac{1}{ \left(1\, +\, \dfrac{I_1\, \tilde{L}_Y}{(1\, -\, C_1)\, \tilde{L}_i}\right)}\, \large{I_2\, d\, \epsilon^I}\)
I can get to (-(LyI1)/(1-c)(Li) + 1) but I feel like this is in the wrong direction. Any help would be appreciated.
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