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Physics 18 Online
ganeshie8 (ganeshie8):

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ganeshie8 (ganeshie8):

Part B :- \(\large d = \frac{ v_0^2 }{ g }\sin(2\theta) \) \(\large 7.68 = \frac{ v_0^2 }{ g }\sin(2\theta) \) ---------(1) now, increase \(\large v_0\) by 3 % so new initial velocity, \(\large \color{red}{V_0} = v_0 + 3 \% \ of \ v_0 \\ = v_0 + v_0 \times \frac{3}{100} \\ = v_0(1 + .03) \\ = 1.03 v_0 \) So, wid this initial velocity, \(\large \color{Red}{V_0}\), the athlete wud go :- \(\large D = \frac{ \color{red}{V_0}^2 }{ g }\sin(2\theta) \) \(\large D = \frac{ (1.03v_0)^2 }{ g }\sin(2\theta) \) ------(2) solve (1) and (2) for \\large D (\)

ganeshie8 (ganeshie8):

solve (1) and (2) for \( \large D \)

ganeshie8 (ganeshie8):

@pretty27

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