(d) Determine the average velocity vyelocity of the object during the following time intervals.At = (0 → 6.00 s), (6.00 s12.0 s), (12.0 s → 18.0 s), and (0 → 18.0 s)→ 6.00 s) =m/sVvelocity(0Vvelocity (6.00 s → 12.0 s) =Vvelocity (12.0 s → 18.0 s) =Vvelocity(0 → 18.0 s) =m/sm/s|m/s(e) Determine the average speed v.speedof the object during the following time intervals.At = (0 → 6.00 s), (6.00→ 12.0 s), (12.0 → 18.0 s), and (0 → 18.0 s)Vspeed (06.00 s)m/s´speed(6.00 s → 12.0 s) =(12.0 s → 18.0 s) =m/sSm/sspeedVspeed(0 .→ 18.0 s) =m/s An object is moving along the x axis and an 18.0 s record of its position as a function of time is shown in the graph.х (m)1610t (s)3121518(a) Determine the position x(t) of the object at the following times.t = 0.0, 3.00 s, 9.00 s, and 18.0 sx(t = 0) =mx(t = 3.00 s) =x(t = 9.00 s) =|mx(t = 18.0 s) =m(b) Determine the displacement Ax of the object for the following time intervals. (Indicate the direction with the sign of your answer.)At = (0 → 6.00 s), (6.00 s → 12.0 s), (12.0 s → 18.0 s), and (0 → 18.0 s)Ax(0 → 6.00 s) =Ax(6.00 s → 12.0 s) =Ax(12.0 s → 18.0 s) =Ax(0 → 18.00 s) =(c) Determine the distance d traveled by the object during the following time intervals.At = (0 → 6.00 s), (6.00 s → 12.0 s), (12.0 s → 18.0 s), and (0 → 18.0 s)d(0 → 6.00 s) =d(6.00 s → 12.0 s) =md(12.0 s → 18.0 s) =

As per guidelines , only 3 subparts are solved here a) Position at x(t) at x(t=0 ) = 4.00 mx(t=3.00…

An object is moving along the x axis and an 18.0 s record of its position as a function of time is shown in the graph. x (m) 16 10 4 t (s) 18 3 6 9 12 15 (a) Determine the position x(t) of the object at the following times. t = 0.0, 3.00 s, 9.00 s, and 18.0 s x(t = 0) =| x(t = 3.00 s) = x(t = 9.00 s) = %3D x(t = 18.0 s) = m (b) Determine the displacement Ax of the object for the following time intervals. (Indicate the direction with the sign of your answer.) At = (0 → 6.00 s), (6.00 s → 12.0 s), (12.0s - 18.0 s), and (0 → 18.0 s) %3D Ax(0 6. 00c)

An object is moving along the x axis and an 18.0 s record of its position as a function of time is shown in the graph. x (m) 16 10 4 t (s) 18 3 6 9 12 15 (a) Determine the position x(t) of the object at the following times. t = 0.0, 3.00 s, 9.00 s, and 18.0 s x(t = 0) =| x(t = 3.00 s) = x(t = 9.00 s) = %3D x(t = 18.0 s) = m (b) Determine the displacement Ax of the object for the following time intervals. (Indicate the direction with the sign of your answer.) At = (0 → 6.00 s), (6.00 s → 12.0 s), (12.0s - 18.0 s), and (0 → 18.0 s) %3D Ax(0 6. 00c)

Glencoe Physics: Principles and Problems, Student Edition

1st Edition

ISBN:9780078807213

Author:Paul W. Zitzewitz

Publisher:Paul W. Zitzewitz

Chapter6: Motion In Two Dimensions

Section6.3: Relative Velocity

Problem 27PP

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