The equation of motion of a particle is x= 3cos(0.45t+π/4)m. Its ma...
+ 2) meters.
We can find the velocity and acceleration functions by taking the first and second derivatives of x with respect to time:
velocity v(t) = dx/dt = -3(0.45)sin(0.45t + 2)
acceleration a(t) = d^2x/dt^2 = -3(0.45)^2cos(0.45t + 2)
To find the maximum velocity, we set v(t) equal to zero and solve for t:
0 = -3(0.45)sin(0.45t + 2)
sin(0.45t + 2) = 0
0.45t + 2 = nπ, where n is an integer
t = (nπ - 2)/0.45
To find the maximum acceleration, we set a(t) equal to zero and solve for t:
0 = -3(0.45)^2cos(0.45t + 2)
cos(0.45t + 2) = 0
0.45t + 2 = (n + 0.5)π, where n is an integer
t = [(n + 0.5)π - 2]/0.45
Note that there are infinitely many solutions for both t_max_v and t_max_a, as there are infinitely many values of n.
To find the values of maximum velocity and maximum acceleration, we can substitute the values of t_max_v and t_max_a into the corresponding velocity and acceleration functions:
v_max = -3(0.45)sin(0.45t_max_v + 2)
a_max = -3(0.45)^2cos(0.45t_max_a + 2)
However, since there are infinitely many solutions for t_max_v and t_max_a, we cannot find a unique value for v_max and a_max without additional information.
The equation of motion of a particle is x= 3cos(0.45t+π/4)m. Its ma...
Given equation is compar to standard equation of motion of particle is - x=rcos(wt+π/2) then r=3 and w=0.45 . Now a=rw (Formula) a=3*0.45.=0.60 unit m/s