Respuesta :
From the given formula d = 1/2 (v0 + v)(t): I assume there must be a t, otherwise the formula is inconsistent dimensionally.
1. We multiply both sides by 2:
2d = (v0 + v)(t) - this is the 3rd choice
2. Divide both sides by t:
2d/t = v0 + v - this is the 1st choice
3. Subtract v from both sides:
2d/t - v = v0
v0 = 2d/t - v - this is the 5th equation
1. We multiply both sides by 2:
2d = (v0 + v)(t) - this is the 3rd choice
2. Divide both sides by t:
2d/t = v0 + v - this is the 1st choice
3. Subtract v from both sides:
2d/t - v = v0
v0 = 2d/t - v - this is the 5th equation
Answer: 1. [tex]2d=(v_0+v)t[/tex]
2. [tex]\frac{2d}{t}=v_0+v[/tex]
3. [tex]v_0=\frac{2d}{t}-v[/tex]
Step-by-step explanation:
Given: The formula for displacement, [tex]d=\frac{1}{2}(v_0+v)t[/tex]
to find [tex]v_0[/tex].
In the formula, d is displacement, [tex]v_0[/tex] is the initial velocity, v is the final velocity, and t is the time.
Multiply 2 on both sides, we get
[tex]2d=(v_0+v)t[/tex]
Divide t on sides, we get
[tex]\frac{2d}{t}=v_0+v[/tex]
Subtract v on both sides we get,
[tex]v_0=\frac{2d}{t}-v[/tex]
The equations in the correct sequence to rewrite the formula for displacement is
1. [tex]2d=(v_0+v)t[/tex]
2. [tex]\frac{2d}{t}=v_0+v[/tex]
3. [tex]v_0=\frac{2d}{t}-v[/tex]