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Test your basic knowledge |
Everyday Physics
Start Test
Study First
Subjects
:
science
,
literacy
Instructions:
Answer 50 questions in 15 minutes.
If you are not ready to take this test, you can
study here
.
Match each statement with the correct term.
Don't refresh. All questions and answers are randomly picked and ordered every time you load a test.
This is a study tool. The 3 wrong answers for each question are randomly chosen from answers to other questions. So, you might find at times the answers obvious, but you will see it re-enforces your understanding as you take the test each time.
1. Not easy to knock over
Why does something move?
restoring force
Stable
Distance traveled
2. Force x lever arm
Net force
Torque
viscosity
Heat capacity equation
3. Fbottom=Ftop+mg where mg is the weight of the volume
First Law of thermodynamics
static fluid formula
Brahe
Aristotle
4. Work done / heat in
Kepler
Aristotle
Engine efficiency
Projectile
5. The total disorder of an object
Momentum
Power (watts)
entropy
Wavelength
6. Sounds below 30 Hz
infrasound
Buoyant force
Net force?0 net torque=0
definition of Bernoulii's equation
7. Mass x velocity
Momentum
Flow through a pipe
restoring force
Convection
8. 5/9 [T(F)-32]
measurement of pressure
measure of density
Convert Fahrenheit to Celsius
Torque
9. Pressure x area
restoring force
Equilibrium
c=3x10^8 m/s
Fluid force
10. New theory that explained behavior at the atomic level
volume fluid flow rate
wave
Quantum mechanics
Energy of motion (kinetic energy)
11. Analized brahe's data and verified the heliocentric theory. These regularities are known as Helpers Laws of Planetary motion.
Thermal radiation
Kepler
density of water
Rotational inertia (moment of inertia)
12. How much torque it takes to get an object rotating
Conservation of energy
Rotational inertia (moment of inertia)
Weight
Newton's Second Law
13. Time required to complete one cycle
Weight
Condition for stability
Projectile
Period
14. The change in internal energy= the heat absorbed- the work done
law of conservation of energy
Distance traveled
frequency of light
wave
15. The center of an object
Power (watts)
Velocity=
Center of gravity (CG)
continuity
16. Rod with forces applied at opposite ends in the same direction
Net force?0 net torque=0
Radiation
azX
First Law of thermodynamics
17. The amount of heat that is required to raise the temperature of one g of a substance by 1 degree C.
Heat capacity (specific heat)
law of conservation of energy
volume fluid flow rate
continuity
18. Believed that the natural state of objects was to be at rest
Net force?0 net torque=0
density of air
Aristotle
Convert Fahrenheit to Celsius
19. Equals total momentum after collision
Net force?0 net torque=0
Period
Stable
Total momentum before collision
20. 1 -000 kg/m^3
continuity
density of water
pressure depends on
Engine efficiency
21. How much torque it takes to get an object rotating
Rotational inertia (moment of inertia)
when ice in water melts what happens?
Time for an object thrown to reach maximum height
mechanical wave
22. 1.25 kg/m^3
density of air
measurement of pressure
density of water
Heat
23. 11 -000 kg/m^3
Power (watts)
density of lead
c=3x10^8 m/s
Acceleration due to gravity on the earth
24. V x A= constant
continuity
Engine efficiency
incoming and outgoing flow rate formula
Conservation of energy
25. Wavelength x frequency
viscosity
Fluid force
Weight
Wave speed=
26. The amount of heat that is required to raise the temperature of one g of a substance by 1 degree C.
Centripedal acceleration=
Projectile
Flow through a pipe
Heat capacity (specific heat)
27. Initial velocity = acceleration x time
Equilibrium
Present velocity
the pressure of liquids _____ when it goes faster
Stable structures
28. Sounds above 20 -000 Hz
ultrasound
period of a pendulum T of length L
Stable structures
Convert Fahrenheit to Celsius
29. 1 / period (time)
First Law of thermodynamics
density of aluminum
Frequency
amplitude
30. T=2p square root m/k frequency= square root k/m;/2p
when ice in water melts what happens?
Einstein
period p of a mass m oscillating on a horizontal spring of force constant k
Brahe
31. If the CG is above the edge - the object will not fall
Convert Fahrenheit to Celsius
Condition for stability
when ice in water melts what happens?
Quantum mechanics
32. The level stays the same
Projectile
when ice in water melts what happens?
Momentum
Physics
33. V1 x A1=v2 x A2
Center of gravity (CG)
bernoulli's equation
Velocity=
incoming and outgoing flow rate formula
34. 9/5T(C)+32
Convert Celsius to Fahrenheit
Engine efficiency
wave
1 BTU
35. Distance traveled / time
density of lead
density of water
Velocity=
Voltage
36. Mass x gravity
Einstein
Stable structures
Equilibrium
Weight
37. 2 -700 kg/m^3
Second law of thermodynamics
density of aluminum
variation of pressure with depth
Internal energy
38. Pressure x area
measure of density
Fluid force
c=3x10^8 m/s
Convert Fahrenheit to Celsius
39.
Distance traveled
Emissive
Center of gravity (CG)
Stable structures
40. Hf
Convert Celsius to Kelven
Stable
Photon energy
Convection
41. Heat Q= mass of sample x specific heat x temp change
Newton
Heat capacity equation
Total momentum before collision
infrasound
42. The study of heat and its transformation into mechanical energy
1 BTU
Stable
density of water
Thermodynamics
43. 10 m/s^2
Acceleration due to gravity on the earth
Net force
Center of gravity (CG)
Emissive
44. The efficiency with which an object emits thermal radiation. Is a number between 0 and 1. A good emitter has an e close to 1.
Velocity required for an object to reach height h
Distance traveled
Rotational inertia (moment of inertia)
Emissive
45. T^4
Einstein
Thermal radiation
Projectile
amplitude
46. Fluid flow velocity=u - fluid density=p (rho) - fluid pressure=P P +
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47. 2 -700 kg/m^3
restoring force
density of aluminum
period of a pendulum T of length L
mechanical wave
48. 9/5T(C)+32
density of water
Conduction
Convert Celsius to Fahrenheit
Einstein
49. Mass x specific heat x temperature change
period p of a mass m oscillating on a horizontal spring of force constant k
Speed of light
Heat
Brahe
50. Net force=0 net torque=0
Condition for stability
Equilibrium
Aristotle
Heat capacity equation