Answer:
For Part A:
ΔX=11.8813 m
Part B:
[tex]t=0.8194 s[/tex]
Explanation:
Note: In order to find Part A we first have to find Part B i.e time
Data given:
[tex]V_i=0[/tex]
a=-9.8m/s^2 (-ve is because ranch is falling down)
Δy=-3.29m (-ve is because ranch is falling down)
Second equation of Motion:
Δy=[tex]V_i*t+\frac{1}{2}g*t^2[/tex]
V_i=0, Equation will become
Δy=[tex]\frac{1}{2}g*t^2[/tex]
[tex]t=\sqrt{2Y/g} \\t=\sqrt{2*-3.29/-9.8} \\t=0.8194 s[/tex]
For Part A:
Again:
Second equation of Motion:
ΔX=[tex]V_i*t+\frac{1}{2}a*t^2[/tex]
Since velocity is constant a=0
V_i=14.5m/s, t=0.8194 sec
ΔX=[tex]V_i*t[/tex]
ΔX=[tex]14.5*0.8194[/tex]
ΔX=11.8813 m
Part B: (Calculated above)
Data given:
[tex]V_i=0[/tex]
a=-9.8m/s^2 (-ve is because ranch is falling down)
Δy=-3.29m (-ve is because ranch is falling down)
Second equation of Motion:
Δy=[tex]V_i*t+\frac{1}{2}g*t^2[/tex]
V_i=0, Equation will become
Δy=[tex]\frac{1}{2}g*t^2[/tex]
[tex]t=\sqrt{2Y/g} \\t=\sqrt{2*-3.29/-9.8} \\t=0.8194 s[/tex]
