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Work Power and Energy Physics Practice

Work, Power, and Energy Physics Practice

Get the work, power, and energy physics practice you need for your test. Generate 10 and 20 question quizzes here and find other useful practice.

Find a direct link to the work and power section, the simple machines, or energy section of the equation sheet or click below for the entire equation sheet.

  • Physics Equation Sheet
Work Power Energy Physics Practice

Random 10 Questions from the Work, Power, and Energy Test Bank

10 Work Power and Mechanical Energy Questions

1 / 10

Tom pushes a 50 kg box up a 15 meter incline plane by pushing with a force of 100 N.  The end result is that the box was lifted 2 meters.  What was the efficiency of this simple machine?

q8

2 / 10

What length of ramp would you ideally have to use to raise an 815 N box a height of 2.10 m using a force of 165 N?

q5

3 / 10

What is the Actual Mechanical Advantage when 300 N of force is required to lift a 3000 N object?

q4

4 / 10

John pushes a box up a ramp using a 10 m plank.  The box moves a vertical distance of 2 m and weighs 500 N, ideally with how much force must he push?

q1

5 / 10

Simple Machine

The picture above is of a(n) ___________________.

6 / 10

A pool ball is flung off of a 0.68 m high table and the ball hits the floor with a speed of 6.0 m/s.  How fast was the ball moving when it left the pool table?

conservation of energy

7 / 10

Potential energy is dependent on __________________.

Location or height which is a type of location

how far you pull the a bow back or how high you lift an object

See types of distance and height in the equations below

Potential energy is equal to the work done, force applied over a distance, to store it  (PE = Fd)

Gravitational potential energy is equal to its weight (mass times gravity) lifted a height to store it (GPE = mgh)

8 / 10

How much does kinetic energy change when the velocity of an object doubles?

kinetic energy changes

9 / 10

Mechanical Energy is composed of ____________.

Mechanical energy is composed of potential energy plus kinetic energy.  Its the total of the moving and what could be released as moving energy.

ME = KE + PE

10 / 10

Sergio pushed a box with 50 Newtons of force forward.  When it did not move he pushed the box even harder with 100 Newtons of force but the box still did not move.  When did Sergio do more work?

W = Fd

If you do not move the object, you have done no work no matter how much force you apply

Your score is

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Random 20 Questions from the Work, Power, and Energy Test Bank

20 Work Power and Mechanical Energy Questions

1 / 20

Tom pushes a 50 kg box up a 15 meter incline plane by pushing with a force of 100 N.  The end result is that the box was lifted 2 meters.  What was the efficiency of this simple machine?

q8

2 / 20

What is the ideal mechanical advantage when a ramp of 4 meters is used to lift a 1400 N sled full of toys 1 meter off the ground pushing with a force of 500 N?

q6

3 / 20

What is the Actual Mechanical Advantage when 300 N of force is required to lift a 3000 N object?

q4

4 / 20

John pushes a box up a ramp using a 10 m plank.  The box moves a vertical distance of 2 m and weighs 500 N, ideally with how much force must he push?

q1

5 / 20

Simple Machine

The picture above is of a(n) ___________________.

6 / 20

Which is a simple machine consisting of a bar or plank that turns around a pivot point?

7 / 20

When energy is lost from a simple machine which of the following must be less

You cannot create work or energy. In a perfect (ideal) scenario Win = Wout but it’s impossible for Wout to be more.  In real situations Wout is less because heat is lost.

8 / 20

Simple machines can't be used to multiply _________________.

You cannot create work or energy. In a perfect (ideal) scenario Win = Wout but it’s impossible for Wout to be more.  Since W=(F)(d) you create the equation (Fin)(din­)=(Fout)(dout).  This last equation shows how you can multiply force or distance

9 / 20

What happens to mechanical energy as an object falls under ideal conditions?

Mechanical energy stays the same as potential energy gets converted to kinetic energy

Mechanical Energy (PE + KE) stays the same

Potential energy goes down

Kinetic energy goes up

10 / 20

A pool ball is flung off of a 0.68 m high table and the ball hits the floor with a speed of 6.0 m/s.  How fast was the ball moving when it left the pool table?

conservation of energy

11 / 20

If a car has a mass of 750 kg, how much force is required to stop the car if it was traveling 12.5 m/s and took 10 m to stop?

Work to stop KE

12 / 20

Kinetic energy is dependent on __________________.

Movement: see how KE has velocity in the equation below

KE = ½ mv2

13 / 20

How much does kinetic energy change when the velocity of an object doubles?

kinetic energy changes

14 / 20

How much kinetic energy does a 30 kg boar have when running 6 m/s?

15 / 20

When energy is lost from the system its lost as _______________.

Heat is not the reason for a cars engine and is a form that mechanical energy is converted to when not going into movement

16 / 20

A student lifts a physics book applying a force equal to is 10N weight a distance of 3m up. How much work did the student do on the book?

Work equals force times distance (W = Fd) and the force is the weight of the book that is lifted up

W = Fd = (10)(3) = 20 N

 

17 / 20

What is the unit of energy?

Joules (J) is the unit for energy (ME,PE,KE,Heat, or work)

Work is the transformation of one form of energy to another.

18 / 20

What is the unit of work?

The joule is the unit of work and all of the energies (ME, KE, PE, Heat)

19 / 20

What is the power output when it takes a force of 50N forward is applied to move a box 6 meters in the same direction in 6 seconds?

power 1

20 / 20

How much work is done when a force of 50N forward is applied to move a box 6 meters in the same direction?

W = Fd

W = (50)(6) = 300 J

 

Your score is

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Resources

  • StickMan Physics Home Page
  • Work, Power, and Energy Content Page
  • Stickman Physics Table of Contents: Use the search bar or click here to easily find a unit or topic
  • Physics Equation Sheet: commonly used equations, variables, and units
  • Rule of Ones: analyzing equations to determine how other variables change
  • Holdensclass.com: Video walk-through of Many Physics Concepts

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Unit 1: One Dimensional Motion
Unit 2: 2D Motion
Unit 3: Newton’s Laws and Force
Unit 4: Universal Gravitation and Circular Motion
Unit 5: Work, Power, Mechanical Advantage, and Simple Machines
Unit 6: Momentum, Impulse, and Conservation of Momentum
Unit 7: Electrostatics
Unit 8: Current and Circuits
Unit 9: Magnetism and Electromagnetism
Unit 10: Intro to Waves
Unit 11: Electromagnetic Waves
Unit 12: Nuclear Physics

AP Physics 1 Pages (Deeper Dive into Concepts)

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