1.2. This problem deals quantitatively with the experiment of problem 1.1. Let S denote the ground frame of reference and S' the train's rest frame. Let the speed of the train, as measured by ground observers, be 30 m/sec in the x direction, and suppose the stone is released at t'=0 at the point x'=y' =0, z' =7.2 m. (a) Write the equations that describe the stone's motion in frame S'. That is, give x', y', and z' as functions of t'. (Note: A body starting from rest and moving with constant acceleration g travels a distance ½ gf² in time t. Gravity produces a constant acceleration whose magnitude is approximately 10 m/sec/sec.) (b) Use the Galilean transformation to write the equations that describe the position of the stone in frame S. Plot the stone's position at intervals of 0.2 sec, and sketch the curve that describes its trajectory in frame S. What curve is this? () The velocity acquired by a body starting from rest with acceleration g is gt. Write the equations that describe the three components of the stone's velocity in S', and use the Galilean velocity transformation to find the velocity components in S.

College Physics
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Chapter1: Units, Trigonometry. And Vectors
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This problem deals quantitatively with the experiment of problem 1.1. Let 5
denote the ground frame of reference and 5' the train's rest frame. Let the speed
of the train, as measured by ground observers, be 30 m/sec in the x direction, and
suppose the stone is released at t' = a at the point x' = y' = 0, z' = 7.2 m.
(a) Write the equations that describe the stone's motion in frame 5'. That is,
give x', y', and z' as functions of t'. (Note: A body starting from rest and moving
with constant acceleration g travels a distance 1/2 gt2 in time t. Gravity produces a
constant acceleration whose lnagnitude is approximately 10 m/sec/sec.)
(b) Use the Galilean transform,ation to write the equations that describe the
position of the stone in frame S. Plot the stone's position at intervals of 0.2 sec,
and sketch the curve that describes its trajectory in frame 5. What curve is this?
(c) The velocity acquired by a body starting from rest with acceleration g is gt.
Write the equations that describe the three components of the stone's velocity in
5', and use the Galilean velocity transformation to find the velocity components
in S.
(d) Find the magnitude of the stone's speed at t = 1 sec in each frame.

1.1. A train moves at a constant speed. A stone on the train is released from rest.
(a) Using the principle of relativity, describe the motion of the stone as seen
by observers on the train.
(b) Using the Galilean transformation, describe the motion of the stone as seen
by observers on the ground. Draw a sketch.
1.2. This problem deals quantitatively with the experiment of problem 1.1. Let S
denote the ground frame of reference and $' the train's rest frame. Let the speed
of the train, as measured by ground observers, be 30 m/sec in the x direction, and
suppose the stone is released at t'=0 at the point x'=y' =0, z' =7.2 m.
(a) Write the equations that describe the stone's motion in frame S'. That is,
give x', y', and z' as functions of t'. (Note: A body starting from rest and moving
with constant acceleration g travels a distance 2 gt² in time !. Gravity produces a
constant acceleration whose magnitude is approximately 10 m/sec/sec.)
(b) Use the Galilean transformation to write the equations that describe the
position of the stone in frame S. Plot the stone's position at intervals of 0.2 sec,
and sketch the curve that describes its trajectory in frame S. What curve is this?
() The velocity acquired by a body starting from rest with acceleration g is gt.
Write the equations that describe the three components of the stone's velocity in
S', and use the Galilean velocity transformation to find the velocity components
in S.
(d) Find the magnitude of the stone's speed at != 1 sec in each frame.
Transcribed Image Text:1.1. A train moves at a constant speed. A stone on the train is released from rest. (a) Using the principle of relativity, describe the motion of the stone as seen by observers on the train. (b) Using the Galilean transformation, describe the motion of the stone as seen by observers on the ground. Draw a sketch. 1.2. This problem deals quantitatively with the experiment of problem 1.1. Let S denote the ground frame of reference and $' the train's rest frame. Let the speed of the train, as measured by ground observers, be 30 m/sec in the x direction, and suppose the stone is released at t'=0 at the point x'=y' =0, z' =7.2 m. (a) Write the equations that describe the stone's motion in frame S'. That is, give x', y', and z' as functions of t'. (Note: A body starting from rest and moving with constant acceleration g travels a distance 2 gt² in time !. Gravity produces a constant acceleration whose magnitude is approximately 10 m/sec/sec.) (b) Use the Galilean transformation to write the equations that describe the position of the stone in frame S. Plot the stone's position at intervals of 0.2 sec, and sketch the curve that describes its trajectory in frame S. What curve is this? () The velocity acquired by a body starting from rest with acceleration g is gt. Write the equations that describe the three components of the stone's velocity in S', and use the Galilean velocity transformation to find the velocity components in S. (d) Find the magnitude of the stone's speed at != 1 sec in each frame.
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