Use the 6-Step problem technique. definition,data ,theory,estimate ,solve,verify 1-A particle moving in two dimensions has a position vector (r) as a function of time (t) withcoordinates given byx(t) = t2 – 4t + 20y(t) = 3sin (2t)Where r is measured in millimetres and t is in seconds Determine the magnitude of the velocity(v) and the acceleration (a) at time t-3 s. (6-STEP METHOD)

SOlution: Given that two equation of x and y componetn of a vector x =t2-4t+20 y=3sin2t

1-A particle moving in two dimensions has a position vector (r) as a function of time (1) with coordinates given by x(t) = t? – 4t + 20 y(t) = 3sin (2t) Where r is measured in millimetres and t is in seconds Determine the magnitude of the velocity (v) and the acceleration (a) at time t=3 s. (6-STEP METHOD)

1-A particle moving in two dimensions has a position vector (r) as a function of time (1) with coordinates given by x(t) = t? – 4t + 20 y(t) = 3sin (2t) Where r is measured in millimetres and t is in seconds Determine the magnitude of the velocity (v) and the acceleration (a) at time t=3 s. (6-STEP METHOD)

College Physics

1st Edition

ISBN:9781938168000

Author:Paul Peter Urone, Roger Hinrichs

Publisher:Paul Peter Urone, Roger Hinrichs

Chapter3: Two-dimensional Kinematics

Section: Chapter Questions

Problem 1PE: Find the following for path A in Figure 3.54: (a) the total distance traveled, and (b) the magnitude...

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Question

Use the 6-Step problem technique. definition,data ,theory,estimate ,solve,verify

1-A particle moving in two dimensions has a position vector (r) as a function of time (t) with
coordinates given by
x(t) = t2 – 4t + 20
y(t) = 3sin (2t)
Where r is measured in millimetres and t is in seconds Determine the magnitude of the velocity
(v) and the acceleration (a) at time t-3 s. (6-STEP METHOD)

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