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AS Physics Unit 1/2 Formulas

Total questions: 105

Worksheet time: 2hrs 45mins

Name
Class
Date
1.

When drawing a vector, what direction is positive? Select all correct answers

a)

Up

b)

Down

c)

Left

d)

Right

2.

What formula would you use to calculate the resultant vector?

a)

c2=a2+b2c^2=a^2+b^2

b)

tanθ=OA\tan\theta=\frac{O}{A}

c)

Add them together

d)

Multipluy them together

3.

Average Speed

a)

total distance/total time

b)

total displacement/total time

c)

acceleration/distance

d)

time x distance

4.

Average Velocity

a)

total distance/total time

b)

total displacement/total time

c)

acceleration/distance

d)

time x distance

5.

v stands for

a)

Initial Velocity

b)

Final Velocity

c)

Acceleration

d)

Displacement

6.

u stands for

a)

Initial Velocity

b)

Final Velocity

c)

Acceleration

d)

Displacement

7.

a stands for

a)

Initial Velocity

b)

Final Velocity

c)

Acceleration

d)

Displacement

8.

t stands for

a)

Time

b)

Final Velocity

c)

Acceleration

d)

Displacement

9.

s stands for

a)

Time

b)

Final Velocity

c)

Acceleration

d)

Displacement

10.

a stands for

a)

Time

b)

Final Velocity

c)

Acceleration

d)

Displacement

11.

u stands for

a)

Initial Velocity

b)

Final Velocity

c)

Acceleration

d)

Displacement

12.

t stands for

a)

Initial Velocity

b)

Final Velocity

c)

Time

d)

Displacement

13.

s stands for

a)

Initial Velocity

b)

Final Velocity

c)

Time

d)

Displacement

14.

u stands for

a)

Initial Velocity

b)

Final Velocity

c)

Time

d)

Displacement

15.

v stands for

a)

Initial Velocity

b)

Final Velocity

c)

Acceleration

d)

Displacement

16.

a stands for

a)

Initial Velocity

b)

Final Velocity

c)

Acceleration

d)

Displacement

17.

The gradient of a displacement time graph is equal to

a)

Displacement

b)

Speed

c)

Velocity

d)

Acceleration

18.

The gradient of a tangent on displacement time graph is equal to

a)

Instantaneous Velocity

b)

Speed

c)

Velocity

d)

Acceleration

19.

The gradient of a velocity time graph is equal to

a)

Displacement

b)

Speed

c)

Velocity

d)

Acceleration

20.

The area under a velocity time graph is equal to

a)

Displacement

b)

Speed

c)

Velocity

d)

Acceleration

21.

When an object is dropped the initial velocity is

a)

0

b)

9.8

c)

-9.8

d)

Unknown

22.

When an object is dropped the acceleration is

a)

0

b)

9.8

c)

-9.8

d)

Unknown

23.

When a ball is thrown in the air, velocity=0

a)

when it is initial thrown

b)

at the maximum height

c)

when it is falling back down

d)

at the end/when it's caught

24.

When a ball is thrown in the air, acceleration is the same the whole time.

a)

True

b)

False

25.

When a ball is thrown in the air, final speed equals initial speed

a)

True

b)

False

26.

a stands for

a)

Force

b)

Acceleration

c)

Mass

d)

Distance

27.

F stands for

a)

Force

b)

Acceleration

c)

Mass

d)

Distance

28.

m stands for

a)

Force

b)

Acceleration

c)

Mass

d)

Distance

29.

Fg can also stand for

a)

Weight

b)

Mass

c)

Gravity

d)

Time

30.

m stands for

a)

Weight

b)

Mass

c)

Gravity

d)

Time

31.

g stands for

a)

Weight

b)

Mass

c)

Gravity

d)

Time

32.

The black is

a)

Force due to weight

b)

Force due to normal

c)

Force due to pulling

d)

Force due to friction

33.

If the object is moving to the right, the blue is

a)

Force due to weight

b)

Force due to normal

c)

Force due to pulling

d)

Force due to friction

34.

The red is

a)

Force due to weight

b)

Force due to normal

c)

Force due to pulling

d)

Force due to friction

35.

If the object is moving to the right, the green is

a)

Force due to weight

b)

Force due to normal

c)

Force due to pulling

d)

Force due to friction

36.

p stands for

a)

Momentum

b)

Mass

c)

Velocity

d)

Power

37.

m stands for

a)

Momentum

b)

Mass

c)

Velocity

d)

Power

38.

v stands for

a)

Momentum

b)

Mass

c)

Velocity

d)

Power

39.

The area under a force time graph is equal to

a)

Force

b)

Impluse

c)

Momentum

d)

Acceleration

40.

This formula is used to calculate

a)

Falling Objects

b)

Collisions

c)

Explosions

d)

Projectile Objects

41.

The formula is used for

a)

Explosions

b)

Elastic Collisions

c)

Inelastic Collisions

d)

Compressions

42.

The formula is used for

a)

Explosions

b)

Elastic Collisions

c)

Inelastic Collisions

d)

Compressions

43.

The formula is used for

a)

Explosions

b)

Elastic Collisions

c)

Inelastic Collisions

d)

Compressions

44.

u stands for

a)

mass

b)

initial velocity

c)

final velocity

d)

initial momentum

45.

v stands for

a)

mass

b)

initial velocity

c)

final velocity

d)

initial momentum

46.

m stands for

a)

mass

b)

initial velocity

c)

final velocity

d)

initial momentum

47.

W stands for

a)

weight

b)

work

c)

energy

d)

gravitational force

48.

E stands for

a)

electrical charge

b)

work

c)

energy

d)

gravitational force

49.

W stands for

a)

Work

b)

Weight

c)

Time

d)

Final Velocity

50.

s stands for

a)

seconds

b)

displacement

c)

time

d)

speed

51.

F stands for

a)

frequency

b)

final velocity

c)

force

d)

weight

52.
a)

Kinetic Energy

b)

Elastic Collision

c)

Potential Energy

d)

Centripetal Force

53.

v stands for

a)

mass

b)

velocity

c)

displacement

d)

force

54.

m stands for

a)

mass

b)

velocity

c)

displacement

d)

force

55.

a)

Kinetic Energy

b)

Elastic Collision

c)

Potential Energy

d)

Centripetal Force

56.

m stands for

a)

momentum

b)

displacement

c)

height

d)

mass

57.

g stands for

a)

momentum

b)

gradient

c)

height

d)

gravity

58.

h stands for

a)

speed

b)

time

c)

height

d)

gravity

59.
a)

Elastic Collision

b)

Inelastic Collision

c)

Explosion

d)

Falling Object

60.

Kinetic energy is conserved in an inelastic collision

a)

True

b)

False

61.

Kinetic energy is conserved in an elastic collision

a)

True

b)

False

62.

Momentum is conserved in an elastic collision

a)

True

b)

False

63.

Momentum is conserved in an inelastic collision

a)

True

b)

False

64.

Momentum is conserved in an explosion

a)

True

b)

False

65.

Vertical component of projectile motion is calculated by

a)

initial velocity x sin θ\theta

b)

initial velocity x cos \theta

c)

initial velocity

d)

initial velocity x tan \theta

66.

Horizontal component of projectile motion is calculated by

a)

initial velocity x sin θ\theta

b)

initial velocity x cos \theta

c)

initial velocity

d)

initial velocity x tan \theta

67.

 uxu_x   is

a)

vertical velocity

b)

horizontal velocity

c)

vertical height

d)

horizontal height

68.

 uyu_y   is

a)

vertical velocity

b)

horizontal velocity

c)

vertical height

d)

horizontal velocity

69.

vyv_y is

a)

vertical final velocity

b)

horizontal final velocity

c)

vertical inital velocity

d)

horizontal initial velocity

70.

 uyu_y  is

a)

vertical final velocity

b)

horizontal final velocity

c)

vertical inital velocity

d)

horizontal initial velocity

71.

t is

a)

tension

b)

vertical displacement

c)

horizontal displacement

d)

time

72.

 sys_y  is

a)

vertical speed

b)

horizontal speed

c)

vertical displacement

d)

horizontal displacement

73.

g is

a)

gravity

b)

horizontal speed

c)

potential energy

d)

gradient of projectile

74.

 vyv_y  is

a)

vertical initial velocity

b)

vertical final velocity

c)

horizontal initial velocity

d)

horizontal final velocity

75.

 sys_y  is

a)

vertical displacement

b)

vertical final velocity

c)

horizontal speed

d)

horizontal displacement

76.

 uyu_y  is

a)

vertical initial velocity

b)

vertical final velocity

c)

horizontal initial velocity

d)

horizontal final velocity

77.

g is

a)

gravity

b)

tension

c)

weight

d)

mass

78.

The force applied on the horizontal is

a)

F x cos θ\theta

b)

F x sin \theta

c)

FAF_A

d)

m x g

79.

The force applied on the vertical is

a)

F x cos θ\theta

b)

F x sin \theta

c)

FAF_A

d)

m x g

80.

The parallel component ( FPF_P  ) is

a)

m x g

b)

 FgF_g  x cos θ\theta  

c)

 F_g  x sin \theta  

d)

 FNF_N  

81.

The perpendicular component ( FF_{\downarrow}  ) is

a)

m x g

b)

 FgF_g  x cos θ\theta  

c)

 F_g  x sin \theta  

d)

 FNF_N  

82.

This formula is used for

a)

Projectile motion

b)

Circular Motion

c)

Straight Line Motion

d)

We didn't learn it

83.

r stands for

a)

range

b)

vertical displacement

c)

circumference

d)

radius

84.

T stands for

a)

time

b)

period

c)

tension

d)

acceleration

85.

This formula calculates

(a)  

86.

This formula is used for

a)

Projectile motion

b)

Circular Motion

c)

Straight Line Motion

d)

We didn't learn it

87.

This formula is used for

a)

Projectile motion

b)

Circular Motion

c)

Straight Line Motion

d)

We didn't learn it

88.

r stands for

a)

range

b)

vertical displacement

c)

circumference

d)

radius

89.

F stands for

a)

Kinetic Energy

b)

Normal Force

c)

Gravitational Force

d)

Centripetal Force

90.

G stands for

a)

gravity

b)

universal gravitational constant

c)

gravitational potential energy

d)

mass

91.

M stands for

a)

mass

b)

momentum

c)

gravitational universal constant

d)

magnitude

92.

m stands for

a)

mass

b)

momentum

c)

gravitational universal constant

d)

magnitude

93.

m stands for

a)

mass

b)

momentum

c)

gravitational universal constant

d)

magnitude

94.

M stands for

a)

mass

b)

momentum

c)

gravitational universal constant

d)

magnitude

95.

G stands for

a)

gravity

b)

universal gravitational constant

c)

gravitational potential energy

d)

mass

96.

g stands for

a)

gravity

b)

universal gravitational constant

c)

gravitational potential energy

d)

mass

97.

T stands for

a)

Tension

b)

Orbital Period

c)

Time

d)

Radius

98.

r stands for

a)

radius

b)

range

c)

time

d)

centripetal velocity

99.

G stands for

a)

gravity

b)

universal gravitational constant

c)

gravitational potential energy

d)

mass

100.

This formula is used for

a)

projectile motion

b)

radiation

c)

centripetal force

d)

planetary movement

101.

n stands for

a)

initial amount

b)

final amount

c)

number of half lives

d)

time

102.

N stands for

a)

initial amount

b)

final amount

c)

number of half lives

d)

time

103.

 N0N_{\frac{0}{ }}  stands for

a)

initial amount

b)

final amount

c)

number of half lives

d)

time

104.

The formula is used for

a)

energy in projectile motion

b)

energy in vertical motion

c)

energy in inclined planes

d)

energy in radiation

105.

c stands for

a)

speed of light

b)

centripetal force

c)

candela

d)

angle of cos