Supplemental Lecture II: Special Relativity in Tensor Notation
... We see that no matter which representation we choose, we always get the same result¶ . We now have all of the conceptual pieces of this new index notation in place. An object with one index is a vector, which is a set of three numbers that transforms in a particular way under rotations. An object wi ...
... We see that no matter which representation we choose, we always get the same result¶ . We now have all of the conceptual pieces of this new index notation in place. An object with one index is a vector, which is a set of three numbers that transforms in a particular way under rotations. An object wi ...
a/b Divided by
... In the previous two lessons we discussed the different ways by which motion can be described (words, graphs, diagrams, numbers, etc.). This unit (Newton's first Law of Motion) will concern the ways through which motion can be explained. Isaac Newton (a 17th century scientist) put forward a variety o ...
... In the previous two lessons we discussed the different ways by which motion can be described (words, graphs, diagrams, numbers, etc.). This unit (Newton's first Law of Motion) will concern the ways through which motion can be explained. Isaac Newton (a 17th century scientist) put forward a variety o ...
Slides for Chapters 9, 10, 11 and Review
... Example 9.5. You are designing an airplane propeller that is to turn at 2400 rpm (or revolutions per minute). The forward airspeed of the plane is to be 75.0 m/s, and the speed of the tips of the propeller blades through the air must not exceed 270 m/s. (This is about 80% of the speed of the sound i ...
... Example 9.5. You are designing an airplane propeller that is to turn at 2400 rpm (or revolutions per minute). The forward airspeed of the plane is to be 75.0 m/s, and the speed of the tips of the propeller blades through the air must not exceed 270 m/s. (This is about 80% of the speed of the sound i ...
Pearson Physics Level 30 Unit V Momentum and Impulse: Chapter 9
... 5. An object has inertia because every object has mass. If an object is stationary, it has inertia but its momentum is zero. If the same object is in motion, it still has inertia but its momentum will not be zero. So, provided that the mass of the object does not change, the motion of the object doe ...
... 5. An object has inertia because every object has mass. If an object is stationary, it has inertia but its momentum is zero. If the same object is in motion, it still has inertia but its momentum will not be zero. So, provided that the mass of the object does not change, the motion of the object doe ...
On a Report by the German Physical Society Concerning
... a system of laws is used as the basis of a physics course that has been considered outdated for the last 100 years, because it suggests a world-view that is unfounded in important respects. The commercial GPS system provides everybody with an experimental falsification of Newton’s laws. The GPS sysA ...
... a system of laws is used as the basis of a physics course that has been considered outdated for the last 100 years, because it suggests a world-view that is unfounded in important respects. The commercial GPS system provides everybody with an experimental falsification of Newton’s laws. The GPS sysA ...
Untitled - GCSE science revision videos, apps and iBooks
... This series of interactive science books covers the complete GCSE Science ‘A’ specifications for AQA, OCR (21st Century Science) and Edexcel. Differences in the specifications are indicated by specific references. For example, (Edexcel, OCR) means that the material covers the OCR and Edexcel specific ...
... This series of interactive science books covers the complete GCSE Science ‘A’ specifications for AQA, OCR (21st Century Science) and Edexcel. Differences in the specifications are indicated by specific references. For example, (Edexcel, OCR) means that the material covers the OCR and Edexcel specific ...
Exam Review (yr long) Jan 2015 Key Terms • Frame of reference
... 6. After pushing against a brick wall for a long time, you are feeling extremely tired, but you have not done any work on the wall. Explain. In order for work to be done the force needs to cause the displacement. If there is no displacement no work is done. 7. By what factor does the kinetic energy ...
... 6. After pushing against a brick wall for a long time, you are feeling extremely tired, but you have not done any work on the wall. Explain. In order for work to be done the force needs to cause the displacement. If there is no displacement no work is done. 7. By what factor does the kinetic energy ...
