Wayground logo

Free Printable Worksheets

Font size

S
M
L
XL
Worksheets

GP 2nd

Total questions: 85

Worksheet time: 39mins

Name
Class
Date
1.
Quantitative measure of the rotational inertia of a body.
a)
Moment of inertia
b)
TORQUE
c)
STATIC TORQUE
d)
DYNAMIC TORQUE
e)
Angular Acceleration
2.
It is a measure of the force that can cause an object to rotate about an axis
a)
Moment of inertia
b)
TORQUE
c)
STATIC TORQUE
d)
DYNAMIC TORQUE
e)
Angular Acceleration
3.
One which does not produce an angular acceleration.
a)
Moment of inertia
b)
TORQUE
c)
STATIC TORQUE
d)
DYNAMIC TORQUE
e)
Angular Acceleration
4.
It must be producing an angular acceleratio
a)
Moment of inertia
b)
TORQUE
c)
STATIC TORQUE
d)
DYNAMIC TORQUE
e)
Angular Acceleration
5.
It is the rate of change of angular velocity with a time of an object in motion.
a)
Moment of inertia
b)
TORQUE
c)
STATIC TORQUE
d)
DYNAMIC TORQUE
e)
Angular Acceleration
6.
When all the forces that act upon an object are balanced
a)
EQUILIBRIUM
b)
Static equilibrium
c)
Dynamic equilibrium
d)
Rotational Equilibrium
e)
Sir Isaac Newton (1642-1727)
7.
If an object is at rest and is in a state of equilibrium.
a)
EQUILIBRIUM
b)
Static equilibrium
c)
Dynamic equilibrium
d)
Rotational Equilibrium
e)
Sir Isaac Newton (1642-1727)
8.
Objects moving at constant velocity.
a)
EQUILIBRIUM
b)
Static equilibrium
c)
Dynamic equilibrium
d)
Rotational Equilibrium
e)
Sir Isaac Newton (1642-1727)
9.
If the net torque is zero, thus, preventing angular acceleration
a)
EQUILIBRIUM
b)
Static equilibrium
c)
Dynamic equilibrium
d)
Rotational Equilibrium
e)
Sir Isaac Newton (1642-1727)
10.
He theorized the 3 Laws of Motion and the Law of Universal Gravitation (1687). He deduced that gravity forces exist between all objects.
a)
EQUILIBRIUM
b)
Static equilibrium
c)
Dynamic equilibrium
d)
Rotational Equilibrium
e)
Sir Isaac Newton (1642-1727)
11.
all objects attract each other with a force of gravitational attraction that is directly proportional to the product of the masses and inversely proportional to the square of the distance that separates their centers.
a)
NEWTON’S LAW OF UNIVERSAL GRAVITATION
b)
Gravitational field
c)
Orbits
d)
JOHANNES KEPLER (1571-1632)
e)
Kepler's First Law:
12.
s the gravitational force per unit mass that would be exerted on a small mass at that point.
a)
NEWTON’S LAW OF UNIVERSAL GRAVITATION
b)
Gravitational field
c)
Orbits
d)
JOHANNES KEPLER (1571-1632)
e)
Kepler's First Law:
13.
is a regular, repeating path that one object in space takes around another one. An object in an orbit is called a satellite.
a)
NEWTON’S LAW OF UNIVERSAL GRAVITATION
b)
Gravitational field
c)
Orbits
d)
JOHANNES KEPLER (1571-1632)
e)
Kepler's First Law:
14.
German astronomer who discovered three major laws of planetary motio
a)
NEWTON’S LAW OF UNIVERSAL GRAVITATION
b)
Gravitational field
c)
Orbits
d)
JOHANNES KEPLER (1571-1632)
e)
Kepler's First Law:
15.
Planets move in elliptical orbits with the sun as a focus.
a)
NEWTON’S LAW OF UNIVERSAL GRAVITATION
b)
Gravitational field
c)
Orbits
d)
JOHANNES KEPLER (1571-1632)
e)
Kepler's First Law:
16.
a planet’s orbital period is proportional to the size of its orbit (its semi-major axis
a)
Kepler's Third Law
b)
Periodic motion
c)
Period
d)
Frequency
e)
Oscillatory/Oscillatory motion
17.
a motion repeated in equal intervals of time
a)
Kepler's Third Law
b)
Periodic motion
c)
Period
d)
Frequency
e)
Oscillatory/Oscillatory motion
18.
interval of time needed for an object to repeat one complete cycle of the motion
a)
Kepler's Third Law
b)
Periodic motion
c)
Period
d)
Frequency
e)
Oscillatory/Oscillatory motion
19.
number of periods per unit time.
a)
Kepler's Third Law
b)
Periodic motion
c)
Period
d)
Frequency
e)
Oscillatory/Oscillatory motion
20.
A motion in which the body moves to and from about a fixed position. An oscillatory motion can be periodic but it is not necessary
a)
Kepler's Third Law
b)
Periodic motion
c)
Period
d)
Frequency
e)
Oscillatory/Oscillatory motion
21.
Seconds
a)
Time Period (T):
b)
Frequency
c)
Angular Frequency
d)
The restoring force
e)
Simple harmonic motion
22.
measured in hertz
a)
Time Period (T):
b)
Frequency
c)
Angular Frequency
d)
The restoring force
e)
Simple harmonic motion
23.
represented by the Greek letter ω (omega)
a)
Time Period (T):
b)
Frequency
c)
Angular Frequency
d)
The restoring force
e)
Simple harmonic motion
24.
causes an oscillating object to move back toward its stable equilibrium position, where the net force on it is zero
a)
Time Period (T):
b)
Frequency
c)
Angular Frequency
d)
The restoring force
e)
Simple harmonic motion
25.
is a type of periodic motion where the restoring force is directly proportional to the displacement
a)
Time Period (T):
b)
Frequency
c)
Angular Frequency
d)
The restoring force
e)
Simple harmonic motion
26.
also known as the pendulum bob , is defined as an object that has a small mass which is suspended from a wire or string of negligible mass
a)
Simple pendulum
b)
Physical pendulum
c)
Mechanical Waves
d)
TRANSVERSE WAVES
e)
BONUS
27.
is the generalized case of the simple pendulum. It consists of any rigid body that oscillates about a pivot point
a)
Simple pendulum
b)
Physical pendulum
c)
Mechanical Waves
d)
TRANSVERSE WAVES
e)
BONUS
28.
a disturbance in matter that carries energy from one place to another
a)
Simple pendulum
b)
Physical pendulum
c)
Mechanical Waves
d)
TRANSVERSE WAVES
e)
BONUS
29.
A wave that causes the medium to vibrate at right angles to the direction in which the wave travels
a)
Simple pendulum
b)
Physical pendulum
c)
Mechanical Waves
d)
TRANSVERSE WAVES
e)
BONUS
30.
ERROR ULI SORRY
a)
Simple pendulum
b)
Physical pendulum
c)
Mechanical Waves
d)
TRANSVERSE WAVES
e)
BONUS
31.
a wave in which the vibration of the medium is parallel to the direction the wave travels. In a longitudinal wave, particles of the medium vibrate back and forth parallel to the direction of the wave
a)
LONGITUDINAL WAVES
b)
SURFACE WAVES
c)
PROPERTIES OF MECHANICAL WAVES
d)
FREQUENCY
e)
AMPLITUDE
32.
surface wave is a wave that travels along a surface separating two media
a)
LONGITUDINAL WAVES
b)
SURFACE WAVES
c)
PROPERTIES OF MECHANICAL WAVES
d)
FREQUENCY
e)
AMPLITUDE
33.
Any motion that repeats at regular time intervals is called periodic motion
a)
LONGITUDINAL WAVES
b)
SURFACE WAVES
c)
PROPERTIES OF MECHANICAL WAVES
d)
FREQUENCY
e)
AMPLITUDE
34.
The number of complete cycles in a given time. Frequency is measured in cycles per second, or hertz (Hz
a)
LONGITUDINAL WAVES
b)
SURFACE WAVES
c)
PROPERTIES OF MECHANICAL WAVES
d)
FREQUENCY
e)
AMPLITUDE
35.
is the maximum displacement of the medium from its rest position
a)
LONGITUDINAL WAVES
b)
SURFACE WAVES
c)
PROPERTIES OF MECHANICAL WAVES
d)
FREQUENCY
e)
AMPLITUDE
36.
is the distance between a point on one wave and the same point on the next cycle of the wave.
a)
WAVELENGTH
b)
SPEED
c)
WAVE SPEED
d)
Periodic Wave
e)
Sine Wave
37.
If you assume that waves are traveling at a constant speed, then wavelength is inversely proportional to frequency
a)
WAVELENGTH
b)
SPEED
c)
WAVE SPEED
d)
Periodic Wave
e)
Sine Wave
38.
Speed = Wavelength x Frequency
a)
WAVELENGTH
b)
SPEED
c)
WAVE SPEED
d)
Periodic Wave
e)
Sine Wave
39.
related to the periodic motion
a)
WAVELENGTH
b)
SPEED
c)
WAVE SPEED
d)
Periodic Wave
e)
Sine Wave
40.
sinusoidal wave is a curve that describes a smooth repetitive oscillation
a)
WAVELENGTH
b)
SPEED
c)
WAVE SPEED
d)
Periodic Wave
e)
Sine Wave
41.
occurs when a wave bounces off a surface that it cannot pass through.
a)
REFLECTION
b)
REFRACTION
c)
DIFFRACTION
d)
INTERFERENCE
e)
Constructive Interference
42.
is the bending of a wave as it enters a new medium at an angle
a)
REFLECTION
b)
REFRACTION
c)
DIFFRACTION
d)
INTERFERENCE
e)
Constructive Interference
43.
is the bending of a wave as it moves around an obstacle or passes through a narrow opening.
a)
REFLECTION
b)
REFRACTION
c)
DIFFRACTION
d)
INTERFERENCE
e)
Constructive Interference
44.
occurs when two or more waves overlap and combine together
a)
REFLECTION
b)
REFRACTION
c)
DIFFRACTION
d)
INTERFERENCE
e)
Constructive Interference
45.
occurs when two or more waves combine to produce a wave with a larger displacement.
a)
REFLECTION
b)
REFRACTION
c)
DIFFRACTION
d)
INTERFERENCE
e)
Constructive Interference
46.
occurs when two or more waves combine to produce a wave with a smaller displacement
a)
Destructive Interference
b)
STANDING WAVES
c)
node
d)
antinode
e)
compression
47.
appears to stay in one place
a)
Destructive Interference
b)
STANDING WAVES
c)
node
d)
antinode
e)
compression
48.
is a point on a standing wave that has no displacement from the rest position
a)
Destructive Interference
b)
STANDING WAVES
c)
node
d)
antinode
e)
compression
49.
is a point where a crest or trough occurs midway between two nodes
a)
Destructive Interference
b)
STANDING WAVES
c)
node
d)
antinode
e)
compression
50.
A region of decreased pressure on a sound wave is called a
a)
Destructive Interference
b)
STANDING WAVES
c)
node
d)
antinode
e)
compression
51.
are substances that flow. They follow under the influence of external forces.
a)
FLUIDS
b)
Mass density
c)
BUOYANCY
d)
ARCHIMEDES' PRINCIPLE
e)
BONUS
52.
is defined as the mass per unit volume of a substance. It is denoted by the Greek letter rho.
a)
FLUIDS
b)
Mass density
c)
BUOYANCY
d)
ARCHIMEDES' PRINCIPLE
e)
BONUS
53.
is a measure of the upward force a fluid exerts on an object that is submerged.
a)
FLUIDS
b)
Mass density
c)
BUOYANCY
d)
ARCHIMEDES' PRINCIPLE
e)
BONUS
54.
greater than its weight.
a)
FLUIDS
b)
Mass density
c)
BUOYANCY
d)
ARCHIMEDES' PRINCIPLE
e)
BONUS
55.
NO QUESTION BONUS WAHAHAHAH ERROR
a)
FLUIDS
b)
Mass density
c)
BUOYANCY
d)
ARCHIMEDES' PRINCIPLE
e)
BONUS
56.
states that in a fluid at rest in a closed container, a pressure change in one part is transmitted without loss to every portion of the fluid and to the walls of the container.
a)
PASCAL’S PRINCIPLE
b)
BERNOULLI’S PRINCIPLE
c)
Thermodynamics
d)
ZEROTH LAW
e)
FIRST LAW
57.
The slower the fluid flows, the more pressure it puts on the pipe itself
a)
PASCAL’S PRINCIPLE
b)
BERNOULLI’S PRINCIPLE
c)
Thermodynamics
d)
ZEROTH LAW
e)
FIRST LAW
58.
is a branch of physics and engineering that focuses on converting energy, often in the form of heat and work.
a)
PASCAL’S PRINCIPLE
b)
BERNOULLI’S PRINCIPLE
c)
Thermodynamics
d)
ZEROTH LAW
e)
FIRST LAW
59.
When two objects are individually in thermal equilibrium with a third object, then they are also in equilibrium with each other.
a)
PASCAL’S PRINCIPLE
b)
BERNOULLI’S PRINCIPLE
c)
Thermodynamics
d)
ZEROTH LAW
e)
FIRST LAW
60.
heat as a form of energy, which means it can neither be created nor destroyed, but we can convert it.
a)
PASCAL’S PRINCIPLE
b)
BERNOULLI’S PRINCIPLE
c)
Thermodynamics
d)
ZEROTH LAW
e)
FIRST LAW
61.
the type of energy that’s involved with movement.
a)
Kinetic energy (KE) -
b)
Translational kinetic energy
c)
Rotational kinetic energy
d)
Vibrational kinetic energy
e)
Potential energy
62.
the most common form of energy and is when something moves from one location to another
a)
Kinetic energy (KE) -
b)
Translational kinetic energy
c)
Rotational kinetic energy
d)
Vibrational kinetic energy
e)
Potential energy
63.
when something spins or rotates,
a)
Kinetic energy (KE) -
b)
Translational kinetic energy
c)
Rotational kinetic energy
d)
Vibrational kinetic energy
e)
Potential energy
64.
when something shakes and vibrates
a)
Kinetic energy (KE) -
b)
Translational kinetic energy
c)
Rotational kinetic energy
d)
Vibrational kinetic energy
e)
Potential energy
65.
type of energy that can come from where something is, even if it’s not moving.
a)
Kinetic energy (KE) -
b)
Translational kinetic energy
c)
Rotational kinetic energy
d)
Vibrational kinetic energy
e)
Potential energy
66.
The energy associated with the seemingly random movement of molecules.
a)
Internal Energy
b)
Heat
c)
Work
d)
SECOND LAW
e)
Entropy
67.
which is the flow of thermal energy
a)
Internal Energy
b)
Heat
c)
Work
d)
SECOND LAW
e)
Entropy
68.
which is essentially any type of energy other than heat
a)
Internal Energy
b)
Heat
c)
Work
d)
SECOND LAW
e)
Entropy
69.
states that during the process of energy transfer or transformation there will be a disorder in the enclosed system. This ‘disorder’ is called Entropy
a)
Internal Energy
b)
Heat
c)
Work
d)
SECOND LAW
e)
Entropy
70.
allows the natural tendency of any isolated system to degenerate into a more disordered state.
a)
Internal Energy
b)
Heat
c)
Work
d)
SECOND LAW
e)
Entropy
71.
For any process, a natural flow of energy will always be from higher energy value to lower energy value.
a)
A. Clausius Statement
b)
B. Kelvin-Planck Statement
c)
C. Entropy Statement
d)
THIRD LAW
e)
Enthalpy
72.
It is impossible for a system to accept a given amount of heat from a high temperature medium and to deliver equal amount of work output.
a)
A. Clausius Statement
b)
B. Kelvin-Planck Statement
c)
C. Entropy Statement
d)
THIRD LAW
e)
Enthalpy
73.
The total entropy of a system either increases or remains constant in any spontaneous process, it never decreases
a)
A. Clausius Statement
b)
B. Kelvin-Planck Statement
c)
C. Entropy Statement
d)
THIRD LAW
e)
Enthalpy
74.
he entropy of any crystalline substance at absolute zero will be equal to zero.
a)
A. Clausius Statement
b)
B. Kelvin-Planck Statement
c)
C. Entropy Statement
d)
THIRD LAW
e)
Enthalpy
75.
is the measurement of total energy in an isolated thermodynamic system
a)
A. Clausius Statement
b)
B. Kelvin-Planck Statement
c)
C. Entropy Statement
d)
THIRD LAW
e)
Enthalpy
76.
is a change from initial state to a final state of a system that usually involves a change in its pressure, volume, or temperature
a)
Thermodynamic process
b)
Isobaric process
c)
Adiabatic Process
d)
isochoric process
e)
isothermal process
77.
is a thermodynamic process change in the state of a certain amount of matter in which the pressure remains constan
a)
Thermodynamic process
b)
Isobaric process
c)
Adiabatic Process
d)
isochoric process
e)
isothermal process
78.
is a process without transfer of heat to or from a system, so that Q = 0, is called adiabatic, and such a system is said to be adiabatically isolated.
a)
Thermodynamic process
b)
Isobaric process
c)
Adiabatic Process
d)
isochoric process
e)
isothermal process
79.
also called a constant-volume process, an isovolumetric process, or an isometric process, is a thermodynamic process during which the volume of the closed system undergoing such a process remains constant.
a)
Thermodynamic process
b)
Isobaric process
c)
Adiabatic Process
d)
isochoric process
e)
isothermal process
80.
is a process that occurs under constant temperature but other parameters of the system can be changed accordingly.
a)
Thermodynamic process
b)
Isobaric process
c)
Adiabatic Process
d)
isochoric process
e)
isothermal process
81.
is one of the best representations for application of all laws of thermodynamics.
a)
Heat Engine
b)
Internal Combustion Engine
c)
External Combustion Engine
d)
Thermal Efficiency
e)
Temperature
82.
A type of combustion engine in which the fuel are burnt inside the system.
a)
Heat Engine
b)
Internal Combustion Engine
c)
External Combustion Engine
d)
Thermal Efficiency
e)
Temperature
83.
A type of combustion engine in which the combustion takes place outside the system
a)
Heat Engine
b)
Internal Combustion Engine
c)
External Combustion Engine
d)
Thermal Efficiency
e)
Temperature
84.
is the measure how useful a system or engine utilize heat based on its input and work output.
a)
Heat Engine
b)
Internal Combustion Engine
c)
External Combustion Engine
d)
Thermal Efficiency
e)
Temperature
85.
is a physical quantity that expresses hot and cold.
a)
Heat Engine
b)
Internal Combustion Engine
c)
External Combustion Engine
d)
Thermal Efficiency
e)
Temperature