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WorksheetsAS Physics Unit 1/2 Formulas
Total questions: 105
Worksheet time: 2hrs 45mins
When drawing a vector, what direction is positive? Select all correct answers
Up
Down
Left
Right
What formula would you use to calculate the resultant vector?
c2=a2+b2
tanθ=AO
Add them together
Multipluy them together
Average Speed
total distance/total time
total displacement/total time
acceleration/distance
time x distance
Average Velocity
total distance/total time
total displacement/total time
acceleration/distance
time x distance
v stands for
Initial Velocity
Final Velocity
Acceleration
Displacement
u stands for
Initial Velocity
Final Velocity
Acceleration
Displacement
a stands for
Initial Velocity
Final Velocity
Acceleration
Displacement
t stands for
Time
Final Velocity
Acceleration
Displacement
s stands for
Time
Final Velocity
Acceleration
Displacement
a stands for
Time
Final Velocity
Acceleration
Displacement
u stands for
Initial Velocity
Final Velocity
Acceleration
Displacement
t stands for
Initial Velocity
Final Velocity
Time
Displacement
s stands for
Initial Velocity
Final Velocity
Time
Displacement
u stands for
Initial Velocity
Final Velocity
Time
Displacement
v stands for
Initial Velocity
Final Velocity
Acceleration
Displacement
a stands for
Initial Velocity
Final Velocity
Acceleration
Displacement
The gradient of a displacement time graph is equal to
Displacement
Speed
Velocity
Acceleration
The gradient of a tangent on displacement time graph is equal to
Instantaneous Velocity
Speed
Velocity
Acceleration
The gradient of a velocity time graph is equal to
Displacement
Speed
Velocity
Acceleration
The area under a velocity time graph is equal to
Displacement
Speed
Velocity
Acceleration
When an object is dropped the initial velocity is
0
9.8
-9.8
Unknown
When an object is dropped the acceleration is
0
9.8
-9.8
Unknown
When a ball is thrown in the air, velocity=0
when it is initial thrown
at the maximum height
when it is falling back down
at the end/when it's caught
When a ball is thrown in the air, acceleration is the same the whole time.
True
False
When a ball is thrown in the air, final speed equals initial speed
True
False
a stands for
Force
Acceleration
Mass
Distance
F stands for
Force
Acceleration
Mass
Distance
m stands for
Force
Acceleration
Mass
Distance
Fg can also stand for
Weight
Mass
Gravity
Time
m stands for
Weight
Mass
Gravity
Time
g stands for
Weight
Mass
Gravity
Time
The black is
Force due to weight
Force due to normal
Force due to pulling
Force due to friction
If the object is moving to the right, the blue is
Force due to weight
Force due to normal
Force due to pulling
Force due to friction
The red is
Force due to weight
Force due to normal
Force due to pulling
Force due to friction
If the object is moving to the right, the green is
Force due to weight
Force due to normal
Force due to pulling
Force due to friction
p stands for
Momentum
Mass
Velocity
Power
m stands for
Momentum
Mass
Velocity
Power
v stands for
Momentum
Mass
Velocity
Power
The area under a force time graph is equal to
Force
Impluse
Momentum
Acceleration
This formula is used to calculate
Falling Objects
Collisions
Explosions
Projectile Objects
The formula is used for
Explosions
Elastic Collisions
Inelastic Collisions
Compressions
The formula is used for
Explosions
Elastic Collisions
Inelastic Collisions
Compressions
The formula is used for
Explosions
Elastic Collisions
Inelastic Collisions
Compressions
u stands for
mass
initial velocity
final velocity
initial momentum
v stands for
mass
initial velocity
final velocity
initial momentum
m stands for
mass
initial velocity
final velocity
initial momentum
W stands for
weight
work
energy
gravitational force
E stands for
electrical charge
work
energy
gravitational force
W stands for
Work
Weight
Time
Final Velocity
s stands for
seconds
displacement
time
speed
F stands for
frequency
final velocity
force
weight
Kinetic Energy
Elastic Collision
Potential Energy
Centripetal Force
v stands for
mass
velocity
displacement
force
m stands for
mass
velocity
displacement
force
Kinetic Energy
Elastic Collision
Potential Energy
Centripetal Force
m stands for
momentum
displacement
height
mass
g stands for
momentum
gradient
height
gravity
h stands for
speed
time
height
gravity
Elastic Collision
Inelastic Collision
Explosion
Falling Object
Kinetic energy is conserved in an inelastic collision
True
False
Kinetic energy is conserved in an elastic collision
True
False
Momentum is conserved in an elastic collision
True
False
Momentum is conserved in an inelastic collision
True
False
Momentum is conserved in an explosion
True
False
Vertical component of projectile motion is calculated by
initial velocity x sin θ
initial velocity x cos θ
initial velocity
initial velocity x tan θ
Horizontal component of projectile motion is calculated by
initial velocity x sin θ
initial velocity x cos θ
initial velocity
initial velocity x tan θ
ux is
vertical velocity
horizontal velocity
vertical height
horizontal height
uy is
vertical velocity
horizontal velocity
vertical height
horizontal velocity
vy is
vertical final velocity
horizontal final velocity
vertical inital velocity
horizontal initial velocity
uy is
vertical final velocity
horizontal final velocity
vertical inital velocity
horizontal initial velocity
t is
tension
vertical displacement
horizontal displacement
time
sy is
vertical speed
horizontal speed
vertical displacement
horizontal displacement
g is
gravity
horizontal speed
potential energy
gradient of projectile
vy is
vertical initial velocity
vertical final velocity
horizontal initial velocity
horizontal final velocity
sy is
vertical displacement
vertical final velocity
horizontal speed
horizontal displacement
uy is
vertical initial velocity
vertical final velocity
horizontal initial velocity
horizontal final velocity
g is
gravity
tension
weight
mass
The force applied on the horizontal is
F x cos θ
F x sin θ
FA
m x g
The force applied on the vertical is
F x cos θ
F x sin θ
FA
m x g
The parallel component ( FP ) is
m x g
Fg x cos θ
Fg x sin θ
FN
The perpendicular component ( F↓ ) is
m x g
Fg x cos θ
Fg x sin θ
FN
This formula is used for
Projectile motion
Circular Motion
Straight Line Motion
We didn't learn it
r stands for
range
vertical displacement
circumference
radius
T stands for
time
period
tension
acceleration
This formula calculates
(a)
This formula is used for
Projectile motion
Circular Motion
Straight Line Motion
We didn't learn it
This formula is used for
Projectile motion
Circular Motion
Straight Line Motion
We didn't learn it
r stands for
range
vertical displacement
circumference
radius
F stands for
Kinetic Energy
Normal Force
Gravitational Force
Centripetal Force
G stands for
gravity
universal gravitational constant
gravitational potential energy
mass
M stands for
mass
momentum
gravitational universal constant
magnitude
m stands for
mass
momentum
gravitational universal constant
magnitude
m stands for
mass
momentum
gravitational universal constant
magnitude
M stands for
mass
momentum
gravitational universal constant
magnitude
G stands for
gravity
universal gravitational constant
gravitational potential energy
mass
g stands for
gravity
universal gravitational constant
gravitational potential energy
mass
T stands for
Tension
Orbital Period
Time
Radius
r stands for
radius
range
time
centripetal velocity
G stands for
gravity
universal gravitational constant
gravitational potential energy
mass
This formula is used for
projectile motion
radiation
centripetal force
planetary movement
n stands for
initial amount
final amount
number of half lives
time
N stands for
initial amount
final amount
number of half lives
time
N0 stands for
initial amount
final amount
number of half lives
time
The formula is used for
energy in projectile motion
energy in vertical motion
energy in inclined planes
energy in radiation
c stands for
speed of light
centripetal force
candela
angle of cos
