To find X0, V0, and a, we will first differentiate the given equation with respect to t:
X = 2 + 2t + t^2V = dX/dt = 2 + 2t
From the above equation, we can see that V0 = V(0) = 2
Now, differentiating V with respect to t, we get:
a = dV/dt = d/dt(2 + 2t) = 2
Therefore, X0 = X(0) = 2, V0 = 2, a = 2
To find V(t), we can directly plug in the value of t into the equation for V:
V(t) = 2 + 2t
To find S(t), we need to integrate V(t) with respect to t:
S(t) = ∫V(t) dtS(t) = ∫(2 + 2t) dtS(t) = 2t + t^2 + C
Given that V(5) is being asked, we can calculate V(5) as follows:
V(5) = 2 + 2(5) = 12
Therefore, V(5) = 12
To find X0, V0, and a, we will first differentiate the given equation with respect to t:
X = 2 + 2t + t^2
V = dX/dt = 2 + 2t
From the above equation, we can see that V0 = V(0) = 2
Now, differentiating V with respect to t, we get:
a = dV/dt = d/dt(2 + 2t) = 2
Therefore, X0 = X(0) = 2, V0 = 2, a = 2
To find V(t), we can directly plug in the value of t into the equation for V:
V(t) = 2 + 2t
To find S(t), we need to integrate V(t) with respect to t:
S(t) = ∫V(t) dt
S(t) = ∫(2 + 2t) dt
S(t) = 2t + t^2 + C
Given that V(5) is being asked, we can calculate V(5) as follows:
V(5) = 2 + 2(5) = 12
Therefore, V(5) = 12