Presentation is loading. Please wait.

Presentation is loading. Please wait.

PHY 205 Ch2: Motion in 1 dimension 7.1 Potential Energy 7.2 Conservation of Mechanical Energy 7.3 Conservation of Energy 7.4 Mass and Energy 7.5 Quantization.

Published byAlberta Dorsey Modified over 7 years ago

Similar presentations

Presentation on theme: "PHY 205 Ch2: Motion in 1 dimension 7.1 Potential Energy 7.2 Conservation of Mechanical Energy 7.3 Conservation of Energy 7.4 Mass and Energy 7.5 Quantization."— Presentation transcript:

1 PHY 205 Ch2: Motion in 1 dimension 7.1 Potential Energy 7.2 Conservation of Mechanical Energy 7.3 Conservation of Energy 7.4 Mass and Energy 7.5 Quantization of Energy Ch7 Conservation of Energy

2 PHY 205 Ch2: Motion in 1 dimension 7.1 Potential Energy

3 PHY 205 Ch2: Motion in 1 dimension 7.1 Potential Energy

4 PHY 205 Ch2: Motion in 1 dimension 7 W-E theorem including potential energy and Non-conservative forces Work-Energy theorem with non-conservative forces and with potential energy

5 PHY 205 Ch2: Motion in 1 dimension 7 Examples W-E theorem

6 PHY 205 Ch2: Motion in 1 dimension 7 Examples W-E theorem

7 PHY 205 Ch2: Motion in 1 dimension 7 Examples W-E theorem

8 PHY 205 Ch2: Motion in 1 dimension 7 Examples W-E theorem

9 PHY 205 Ch2: Motion in 1 dimension Ch7 Conservation of Energy

10 PHY 205 Ch2: Motion in 1 dimension Ch7 Conservation of Energy

11 PHY 205 Ch2: Motion in 1 dimension Ch7 Conservation of Energy

12 PHY 205 Ch2: Motion in 1 dimension Ch7 Conservation of Energy

13 PHY 205 Ch2: Motion in 1 dimension Ch7 Conservation of Energy

Download ppt "PHY 205 Ch2: Motion in 1 dimension 7.1 Potential Energy 7.2 Conservation of Mechanical Energy 7.3 Conservation of Energy 7.4 Mass and Energy 7.5 Quantization."

Similar presentations

09-1 Physics I Class 09 Potential Energy and Conservation of Energy.

09-1 Physics I Class 09 Potential Energy and Conservation of Energy.
King Fahd University of Petroleum & Minerals Mechanical Engineering Dynamics ME 201 BY Dr. Meyassar N. Al-Haddad Lecture # 16.

King Fahd University of Petroleum & Minerals Mechanical Engineering Dynamics ME 201 BY Dr. Meyassar N. Al-Haddad Lecture # 16.
Conservation of Kinetic Energy

Conservation of Kinetic Energy
12-1 Physics I Class 12 Conservative Forces and Potential Energy.

12-1 Physics I Class 12 Conservative Forces and Potential Energy.
Physics 218: Mechanics Instructor: Dr. Tatiana Erukhimova Lecture 10.

Physics 218: Mechanics Instructor: Dr. Tatiana Erukhimova Lecture 10.
Non-Conservative Forces,

Non-Conservative Forces,
King Fahd University of Petroleum & Minerals Mechanical Engineering Dynamics ME 201 BY Dr. Meyassar N. Al-Haddad Lecture # 38.

King Fahd University of Petroleum & Minerals Mechanical Engineering Dynamics ME 201 BY Dr. Meyassar N. Al-Haddad Lecture # 38.
King Fahd University of Petroleum & Minerals Mechanical Engineering Dynamics ME 201 BY Dr. Meyassar N. Al-Haddad Lecture # 16.

King Fahd University of Petroleum & Minerals Mechanical Engineering Dynamics ME 201 BY Dr. Meyassar N. Al-Haddad Lecture # 16.
12-1 Physics I Class 12 Potential Energy and Conservation of Energy.

12-1 Physics I Class 12 Potential Energy and Conservation of Energy.
Physics 218: Mechanics Instructor: Dr. Tatiana Erukhimova Lecture 20.

Physics 218: Mechanics Instructor: Dr. Tatiana Erukhimova Lecture 20.
Rotational Dynamics. Moment of Inertia The angular acceleration of a rotating rigid body is proportional to the net applied torque:  is inversely proportional.

Rotational Dynamics. Moment of Inertia The angular acceleration of a rotating rigid body is proportional to the net applied torque:  is inversely proportional.
Chapter 6 Work and Energy. 6.1 Work Done by a Constant Force.

Chapter 6 Work and Energy. 6.1 Work Done by a Constant Force.
Energy 12/11/14. Chapter 6 – Work and Energy Major Concepts: Work Power Conservative and Non-Conservative Forces Mechanical and Non-Mechanical Energies.

Energy 12/11/14. Chapter 6 – Work and Energy Major Concepts: Work Power Conservative and Non-Conservative Forces Mechanical and Non-Mechanical Energies.
Work and Energy Work done by a constant force Work-Energy Theorem and KE Gravitational Potential Energy Conservative Forces vs Non- conservative Forces.

Work and Energy Work done by a constant force Work-Energy Theorem and KE Gravitational Potential Energy Conservative Forces vs Non- conservative Forces.
Power, Work and Energy Physics January 2 and 3. Objectives Define and Describe work, power and energy Evaluate how work, power and energy apply to the.

Power, Work and Energy Physics January 2 and 3. Objectives Define and Describe work, power and energy Evaluate how work, power and energy apply to the.
Ch 6 Work and Energy.

Ch 6 Work and Energy.
PHY221 Ch8: Conservative forces and PE 1.Recall main points: Understand why we can define potential energy when work is independent of path (conservative.

PHY221 Ch8: Conservative forces and PE 1.Recall main points: Understand why we can define potential energy when work is independent of path (conservative.
WORK The work dW done on a particle displaced along differential path dr, by an object exerting force F is defined as A B F dr The SI unit of work is 1J.

WORK The work dW done on a particle displaced along differential path dr, by an object exerting force F is defined as A B F dr The SI unit of work is 1J.
Mechanical Energy. Kinetic Energy, E k Kinetic energy is the energy of an object in motion. E k = ½ mv 2 Where E k is the kinetic energy measured in J.

Mechanical Energy. Kinetic Energy, E k Kinetic energy is the energy of an object in motion. E k = ½ mv 2 Where E k is the kinetic energy measured in J.
Work Done by a Varying Force (1D). Force Due to a Spring – Hooke’s Law.

Work Done by a Varying Force (1D). Force Due to a Spring – Hooke’s Law.

Similar presentations

Ads by Google