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Worksheets

Kinematics

Total questions: 100

Worksheet time: 3hrs 20mins

Name
Class
Date
1.

A 10-g penny is dropped from a building that is 125 m high. The penny is initially at rest. Approximately how long does it take the penny to hit the ground?

a)

3.2 s

b)

4.5 s

c)

10 s

d)

15 s

e)

20

2.

A car in a drag race started from rest and accelerated constantly to a velocity of 50 m/s when it reached the end of a 500-m road. What was the car’s rate of acceleration?

a)

–5.0 m/s2

b)

-2.5 m/s2

c)

0.5 m/s2

d)

2.5 m/s2

e)

5.0 m/s2

3.

3. Which of the following best describes the motion of the car in regions C, D, and E of the velocity versus time graph?

a)

It is slowing down until it reverses direction and speeds back up again.

b)

It moves at a constant velocity in the negative direction.

c)

It accelerates at a constant, nonzero acceleration except at point C when its acceleration is zero.

d)

Its position changes at a constant rate.

e)

It moves at a constant, positive acceleration throughout the trip.

4.

What is the magnitude of the acceleration of the car in region A?

a)

0 m/s2

b)

3 m/s2

c)

5 m/s2

d)

10 m/s2

e)

30 m/s2

5.

What is the acceleration rate of the car at the 6-second clock reading?

a)

0 m/s2

b)

-15 m/s2

c)

-30 m/s2

d)

+30 m/s2

e)

-60 m/s2

6.

Rank the average velocities of the car in regions A, B, C, and E.

a)

A > B > C = E

b)

B = A > C = E

c)

B > A = C = E

d)

B > A = C > E

e)

A > B > C = E

7.

An airplane is flying horizontally at a velocity of 50.0 m/s at an altitude of 125 m. It drops a package to observers on the ground below. Approximately how far will the package travel in the horizontal direction from the point that it was dropped?

a)

100 m

b)

159 m

c)

250 m

d)

1020 m

e)

1590 m

8.

A placekicker kicks a football at a velocity of 10.0 m/s from a tee on the ground at an angle of 30° from the horizontal. Approximately how long will the ball stay in the air?

a)

0.0 s

b)

0.6 s

c)

0.8 s

d)

1.0 s

e)

1.8 s

9.

This graph depicts the motion of an object. During which time interval is the object at rest?

a)

0-2 s

b)

2-3 s

c)

3-4 s

d)

4-7 s

e)

7-10 s

10.

A car is traveling at an unknown velocity. It accelerates constantly over 5.0 seconds at a rate of 3.0 m/s2 to reach a velocity of 30 m/s. What was the original velocity of the car?

a)

1.0 m/s

b)

5.0 m/s

c)

10 m/s

d)

15 m/s

e)

20 m/s

11.

A plane takes off from rest and accelerates constantly at a rate of 1.0 m/s2 for 5 minutes. How far does the plane travel in this time?

a)

15 km

b)

30 km

c)

45 km

d)

90 km

e)

150 km

12.

A person drops a stone down a well and hears the echo 8.9 s later. If it takes 0.9 s for the echo to travel up the well, approximately how deep is the well?

a)

40 m

b)

320 m

c)

405 m

d)

640 m

e)

810 m

13.

If a ball is thrown straight upward with an initial velocity of 30.0 m/s, how much time does it take to reach its maximum height?

a)

1.0 s

b)

1.4 s

c)

1.5 s

d)

3.0 s

e)

9.8 s

14.

On an airless planet, an astronaut drops a hammer from rest at a height of 15 m. The hammer hits the ground in 1 s. What is the acceleration due to the gravity on this planet?

a)

10 m/s2

b)

15 m/s2

c)

20 m/s2

d)

25 m/s2

e)

30 m/s2

15.

A car uniformly accelerates from rest at 3.0 m/s2 down a 150-m track. What is the car’s final velocity?

a)

30 m/s

b)

90 m/s

c)

150 m/s

d)

450 m/s

e)

900 m/s

16.

An object’s position with time is depicted in the following graph. Based on the graph, at which time points will the object’s velocity be closest to zero?

a)

0 s and 2 s

b)

0 s and 4 s

c)

1 s and 2 s

d)

1 s and 3 s

e)

2 s and 4 s

17.

A cannonball is launched at an angle and travels above the flat ground. At what time point does a projectile reach its maximum height?

a)

One-fifth of the total time in the air

b)

One-fourth of the total time in the air

c)

One-half of the total time in the air

d)

Three-fifths of the total time in the air

e)

Three-fourths of the total time in the air

18.

A boy drops a stone from a cliff and counts the seconds until the stone hits the base. He counts 3 s. About how high is the cliff?

a)

3 m

b)

10 m

c)

15 m

d)

45 m

e)

90 m

19.

A boy is riding a bicycle at a velocity of 5.0 m/s. He applies the brakes and uniformly decelerates to a stop at a rate of 2.5 m/s2. How long does it take for the bicycle to stop?

a)

0.5 s

b)

1.0 s

c)

1.5 s

d)

2.0 s

e)

2.5 s

20.

A police officer finds 60 m of skid marks at the scene of a car crash. Assuming a uniform deceleration of 7.5 m/s2 to a stop, what was the velocity of the car when it started skidding?

a)

20 m/s

b)

30 m/s

c)

45 m/s

d)

60 m/s

e)

90 m/s

21.

The velocity–time graph of an object’s motion is shown in this graph. At 10 s, what is the object’s displacement relative to the initial time?

a)

3 m

b)

6 m

c)

9 m

d)

-6 m

e)

-3 m

22.

A projectile is launched with an unknown velocity at an angle of 30° from the horizontal of level ground. Which of the following statements is true?

a)

The horizontal component of velocity is less than the vertical component of velocity.

b)

The horizontal component of velocity is greater than the vertical component of velocity.

c)

Both the horizontal and vertical components of velocity are equal.

d)

The horizontal component of velocity is used to calculate the time that the projectile is in the air.

e)

The vertical component of velocity is used to calculate the range of the projectile.

23.

From rest, a ball is dropped from the top of a building. It takes 4 s to hit the ground. Approximately how tall is the building?

a)

40 m

b)

90 m

c)

100 m

d)

160 m

e)

200 m

24.

The position–time graphs of five different objects are shown in these graphs. If the positive direction is forward, then which object is moving backward at a constant velocity?

a)

Object A

b)

Object B

c)

Object C

d)

Object D

e)

Object E

25.

A student launches projectiles with the same velocity but at different angles (0–90°) relative to the ground. He measures the range of each projectile. Which angle pairs have the same range?

a)

10° and 20°

b)

30° and 45°

c)

30° and 60°

d)

45° and 60°

e)

10° and 90°

26.

An object free-falls from rest a distance D. How far will the object fall from rest in twice the elapsed time?

a)

D

b)

2\sqrt{2} D

c)

2 D

d)

3 D

e)

4 D

27.

A car is traveling at 30 m/s. The driver applies the brakes, and the car uniformly decelerates at 9 m/s2. How far does the car travel before coming to a complete stop?

a)

2 m

b)

50 m

c)

100 m

d)

200 m

e)

450 m

28.

The position–time graph shown here is typical of which type of motion?

a)

Motion with a constant positive velocity

b)

Motion with zero velocity

c)

Motion with a constant positive acceleration

d)

Motion with zero acceleration

e)

Motion with a constant negative acceleration

29.

If you drop a ball from a 100-m-tall building, approximately how far will the ball fall in 2 s?

a)

10 m

b)

20 m

c)

40 m

d)

50 m

e)

100 m

30.

An ice skater moving at 10 m/s comes to a complete stop in 0.5 s. What is the rate of acceleration?

a)

5 m/s2

b)

10 m/s2

c)

20 m/s2

d)

-20 m/s2

e)

-10 m/s2

31.

Which equation is not found on the AP paper?

a)

vf=vi+at

b)

Δx=1/2(vf+vi)(t)

c)

vf^2=vi^2+2aΔx

d)

Δx=viΔt+1/2aΔt^2

32.

A car accelerates from rest at a constant rate 5 m/s^2 . Which of the following statements is true?

a)

A. The car travels 5 m in every second

b)

B. The car decreases its velocity 5 m/s in every second

c)

C. The car increases its velocity 5 m/s in every second

d)

D. The car’s velocity doesn’t change

33.

A rock is thrown straight up from the edge of a cliff. The rock reaches the maximum height of 15 m above the edge and then falls down to the bottom of the cliff 35 m below the cliff. What is the traveled distance of the rock?

a)

A. 30 m

b)

B. 35 m

c)

C. 50 m

d)

D. 65 m

34.

A projectile is fired from the surface of the Earth with a speed of 200 meters per second at an angle of 30° above the horizontal. If the ground is level, what is the maximum height reached by the projectile?


a)

A) 5 m

b)

B) 10 m

c)

C) 500 m

d)

D) 1,000 m

e)

E) 2,000 m

35.

An object moving in a straight line has a velocity v in meters per second that varies with time t in seconds according

to the following function: v=4+0.5t^2


The instantaneous acceleration of the object at t = 2 seconds is

a)

2 m/s^2

b)

4 m/s^2

c)

5 m/s^2

d)

6 m/s^2

e)

8 m/s^2

36.

An object moving in a straight line has a velocity v in meters per second that varies with time t in seconds according

to the following function: v=4+0.5t^2


The displacement of the object between t = 0 and t = 6 seconds is

a)

22 m

b)

28 m

c)

40 m

d)

42 m

e)

60 m

37.

Starting from rest, a vehicle accelerates on a straight level road at the rate of 4.0 m/s2 for 5.0 s.


What is the speed of the vehicle at the end of this time interval?


a)

1.3 m/s

b)

10 m/s

c)

20 m/s

d)

80 m/s

e)

100 m/s

38.

Starting from rest, a vehicle accelerates on a straight level road at the rate of 4.0 m/s2 for 5.0 s.


What is the total distance the vehicle travels during this time interval?

a)

10 m

b)

20 m

c)

25 m

d)

40 m

e)

50 m

39.

Find the dot product of the two vectors P and Q.

P = {5 i + 2 j + 3 k}

Q = {-2 i + 5 j + 4 k}

a)

-12

b)

12

c)

-10

d)

0

e)

10

40.
A change in velocity over time is known as:
a)
acceleration
b)
constant speed
c)
average speed
d)
displacement
41.

Find the dot product of the two vectors P and Q.

P = {5 i + 2 j + 3 k}

Q = {-2 i + 5 j + 4 k}

a)

-12

b)

12

c)

-10

d)

0

e)

10

42.
How do you calculate average speed?
a)
divide total time by total distance
b)
multiply total time by total distance
c)
divide total distance by total time
d)
subtract total time from total distance
43.
A ball is thrown downward from the top of a roof with a speed of 25 m/s. After 2 s, its velocity will be:
a)
19.6 m/s
b)
-5.4 m/s
c)
-44.6 m/s
d)
44.6 m/s
44.
What happens to the velocity of a ball as it is dropped off a cliff? 
a)
It decreases at a uniform rate 
b)
It increases at a uniform rate 
c)
It is constant 
d)
It increases at a non-uniform rate
45.
An object  accelerates at 2  m/s^2. Assuming the object starts from rest, how much time does it need to accelerate to a speed of 16  m/s?
a)
4 s
b)
8 s
c)
16 s
d)
1/16 s
46.
Is this a scalar quantity or a vector quantity?
Wind blowing at 20 knots
a)
Scalar
b)
Vector
47.
Which statement describes a vector?
a)
It has magnitude but no direction
b)
It has direction but no magnitude
c)
It has both direction and magnitude
d)
It has constant magnitude but no
 direction
48.
The quantity (13.2i  +  23.1j )m is
a)
polar coordinate notation
b)
unit vector notation
c)
a scalar
d)
a quasar
49.
If a boomerang is thrown 20 m in a straight line and returns exactly to the spot it was thrown what is its displacement?
a)
20m
b)
40m
c)
0m
d)
-20m
50.
A golf ball starts with a speed of 2 m/s and slows at a constant rate of 0.5 m/s2, what is its velocity after 2 s?
a)
0 m/s
b)
0.5 m/s
c)
1 m/s
d)
1.5 m/s
51.
At 60 seconds, how far had this object traveled? 
a)
0 m
b)
10 m
c)
20 m
d)
40 m
52.
Which graph represents zero acceleration (constant velocity)?
a)
A
b)
B
c)
C
d)
D
53.
A wagon goes 35 meters and accelerates to 60 meters in 5 seconds. What was the wagon’s acceleration?
a)
25 m/s²
b)
30 m/s²
c)
6 m/s²
d)
5 m/s²
54.
Calculate the acceleration for segment A.
a)
2 m/s2
b)
2 m/s
c)
-2 m/s2
d)
0 m/s2
55.
What is happening between 2 and 3 seconds?
a)
The object is not moving.
b)
The object is not accelerating.
c)
The object is slowing down.
d)
The object is speeding up.
56.
Who had the greatest average speed after 100 seconds?
a)
Mike
b)
Katelyn
c)
Alex
d)
They had the same average speed
57.
What is the only thing that determines how long a horizontally launched projectile stays in the air?
a)
the weight of the object
b)
the height of the object
c)
the height at which it was launched
d)
the distance of the projectile
58.

Charlie shoots a basketball from a height of 6 feet with an initial upward velocity of 18 feet per second. How long will it take the ball to reach the maximum height?

a)

0.6 seconds

b)

11 seconds

c)

6 second

d)

this graph has a minimum

59.

Step 2 find the magnitude of < 4,5 >

a)

41

b)

√41

60.

Find the unit vector of the vector PQ. P ( 0,5) Q ( 1,7). Find 2 answers.

a)

< 1/ √5, 2/ √5 >

b)

< .89, .45 >

c)

< .45, .89 >

61.

Find a unit vector in the direction of <6, -8>

a)

<0.6, -0.8>

b)

< .06, -.08>

c)

<1/10, -1/10>

d)

<0, -2>

62.

Find a unit vector in the direction of <6, -8>

a)

<0.6, -0.8>

b)

< .06, -.08>

c)

<1/10, -1/10>

d)

<0, -2>

63.

Find the unit vector of the vector PQ. P ( 0,5) Q ( 1,7). Find 2 answers.

a)

< 1/ √5, 2/ √5 >

b)

< .89, .45 >

c)

< .45, .89 >

64.
How long will it take a running horse to travel 260 m and attain a speed of 12 m/s from rest?
a)
1200 seconds
b)
1.2 hours
c)
43 Hours
d)
43 minutes
65.
A car is traveling at 21.0 m/s. It slows to a stop at a constant rate over 5.00 s. How far does the car travel during those 5.00 seconds before it stops? 
a)
4.20 m
b)
52.5 m
c)
105 m
d)
158 m
66.
In each of the following cases, determine which car has the greatest acceleration.
a)
starts from 0 m/s to 20 m/s in 4 seconds.
b)
speed up from 20m/s to 40m/s in 3 seconds
c)
slow down from 50m/s to stop in 2 seconds
d)
starts from 0 m/s to 20m/s in 5 seconds
67.
A car is traveling at 21.0 m/s. It slows to a stop at a constant rate over 5.00 s. How far does the car travel during those 5.00 seconds before it stops? 
a)
4.20 m
b)
52.5 m
c)
105 m
d)
158 m
68.
Motion sensors recorded the following data about a runner during a cross-country race. During which segment of the race did the runner have the greatest speed?
a)
W
b)
X
c)
Y
d)
Z
69.
Describe the motion
a)
Slow to fast;   Negative direction
b)
Fast to slow;   Negative direction
c)
Fast to slow;   Positive direction
d)
Slow to fast;   Positive direction
70.
Describe the motion in segment C
a)
Slowing down;  Positive direction
b)
Slowing down;  Negative direction
c)
Speeding up;  Negative direction
d)
Constant velocity;  Negative direction
71.
What happens to the total distance that a ball travels as it falls off the side of a cliff?
a)
The distance remains constant 
b)
The distance increases at a uniform rate
c)
The distance increases at a nonuniform rate 
d)
The distance decreases at a uniform rate
72.
At what time did runner A pass runner B?
a)
0 seconds
b)
1 second
c)
2 seconds
d)
3 seconds
73.
Which graph represents zero acceleration (constant velocity)?
a)
A
b)
B
c)
C
d)
D
74.
Find the displacement in the first 5 seconds.
a)
8 meters
b)
4 meters
c)
2 meters
d)
5 meters
75.
The red line shows...
a)
A stationary object.
b)
An object with constant velocity.
76.
How much time would it take for an object to fall 4.7 meters?
a)
0.959 s
b)
4.79 s
c)
0.979 s
77.

The graph above shows the velocity v as a function of time t for an object moving in a straight line. Which of the following graphs shows the corresponding displacement x as a function of time t for the same time interval?

a)
b)
c)
d)
78.

The graph provided is a velocity vs. time graph for thing that can move and is indeed moving. Which of the following is true about the speed of the object during the time interval from 0 to 6 s.

a)

It increases during the entire interval.

b)

It remains the same.

c)

It first increases and then decreases.

d)

It first decreases and then increases.

79.

The graph on the right shows the velocity v as a function of time t for a thing moving in 1D motion. Which of the following graphs shows the corresponding displacement x as a function of time?

a)
b)
c)
d)
80.

An object thrown up in the air has the following vector quantities for velocity and acceleration.

a)

v= (+) , a= (-)

b)

v= (+) , a= (0)

c)

v= (0) , a= (-)

d)

v= (0) , a= (0)

81.

The object below is moving in a straight line and is slowing down over the entire time interval because the slope is negative.

a)

True

b)

False

82.

Billy is traveling at a constant velocity of 5 m/s. After 3 seconds of traveling at this velocity he accelerates at a rate of 2 m/s^2 for the next 5 seconds. After the total 8 seconds what distance did billy travel? ( type the number only, NO unit)

(a)  

83.

An object is dropped from rest from the top of a 800 m cliff on Earth. If air resistance is negligible, what is the distance the object travels during the first 8 s of its fall? ( use 10 m/s^2)

a)

180 m

b)

60 m

c)

320 m

d)

120 m

84.

Starting from rest, object 1 falls freely for 2.0 seconds, and object 2 falls freely for 4.0 seconds. Compared to object 1, object 2 falls:

a)

half of the distance

b)

twice the distance

c)

four times the distance

d)

a square of the distance

85.

You are given the vx-t graph for an object moving along the x-axis with constant acceleration. Which of the following could you not determine from the information given in this graph alone?

a)

the object’s x-acceleration at any time t

b)

the object’s x-velocity at any time t

c)

the object’s position at any time t

d)

more than one of the above

e)

misleading question—you could determine all of these from the vx-t graph alone

86.

When will terminal speed occur?

a)

The falling object travels at constant speed

b)

The falling object falls at 9.8m/s

c)

The falling object falls at 9.8 ms29.8\ \frac{m}{s^2}

d)

The falling object is at rest

87.

This is the x-tgraph of the motion of a particle. Of the four points P, Q, R,and S, the velocity vx is greatest (most positive) at

a)

P

b)

Q

c)

R

d)

S

88.

This is a motion diagram of an object moving along the x-direction with constant acceleration. The dots 1, 2, 3, … show the position of the object at equal time intervals ∆t.At the time labeled 3, what are the signs of the object’s velocity vx and acceleration ax?

a)

vx< 0, ax= 0

b)

vx< 0, ax< 0

c)

vx> 0, ax< 0

d)

vx< 0, ax> 0

89.

This is a motion diagram of an object moving along the x-direction with constant acceleration. The dots 1, 2, 3, … show the position of the object at equal time intervals ∆t. Which of the following vx-tgraphs best matches the motion shown in the motion diagram?

a)
b)
c)
d)
e)
90.

This is a motion diagram of an object moving along the x-direction with constant acceleration. The dots 1, 2, 3, … show the position of the object at equal time intervals ∆t. Which of the following axtgraphs best matches the motion shown in the motion diagram?

a)
b)
c)
d)
e)
91.

This is a motion diagram of an object moving along the x-direction with constant acceleration. The dots 1, 2, 3, … show the position of the object at equal time intervals ∆t. Which of the following vx-tgraphs best matches the motion shown in the motion diagram?

a)
b)
c)
d)
e)
92.

An object moves along the x-axis with constant acceleration. The initial position x is positive, the initial velocity is negative, and the acceleration is positive.

Which of the following vx-t graphs best describes this motion?

a)
b)
c)
d)
e)
93.

Which of the following axt graphs (graphs of acceleration vs. time)best matches the motion of the glider as it goes down?

a)
b)
c)
d)
94.

Which of the following vxt graphs (graphs of velocity vs. time) best matches the motion of the glider?

a)
b)
c)
d)
e)
95.
At 60 seconds, how far had this object traveled? 
a)
0 m
b)
10 m
c)
20 m
d)
40 m
96.
What is happening at D?
a)
Stationary
b)
Accelerating
c)
Fast steady speed; moving away from the starting position
d)
Slower steady speed; moving away from the starting position
97.
Which graph represents zero acceleration (constant velocity)?
a)
A
b)
B
c)
C
d)
D
98.
Which runner got a head start?
a)
red line runner
b)
blue line runner
99.
What is happening between 2 and 3 seconds?
a)
The object is not moving.
b)
The object is not accelerating.
c)
The object is slowing down.
d)
The object is speeding up.
100.

A car in a drag race started from rest and accelerated constantly to a velocity of 50 m/s when it reached the end of a 500-m road. What was the car’s rate of acceleration?

a)

–5.0 m/s2

b)

-2.5 m/s2

c)

0.5 m/s2

d)

2.5 m/s2

e)

5.0 m/s2