'Gravitational field strength' presentation slideshows

Speed of a wave

STATE VARIABLE. Speed of a wave. v. STATE VARIABLE. Energy of a photon. E photon. STATE VARIABLE. Index of refraction. n. STATE VARIABLE. Period of Wave. T. STATE VARIABLE. wavelength. ?. STATE VARIABLE. mass. m. STATE VARIABLE. Electric Field Strength. E. STATE VARIABLE.

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Concept Summary

Gravitation. Concept Summary. Early Astronomy. As far as we know, humans have always been interested in the motions of objects in the sky. Not only did early humans navigate by means of the sky, but the motions of objects in the sky predicted the changing of the seasons, etc. Early Astronomy.

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KS4 Physics

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March 15 & 18

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Energy stored in a stretched wire

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Static Equilibrium

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Universal Gravitation

Celestial Universal Gravitation Terrestrial Sir Isaac Newton 1642-1727 UNIVERSAL GRAVITATION +F -F For any two masses in the universe: F = G m 1 m 2 /r 2 G = a constant later evaluated by Cavendish m 2 m 1 r CAVENDISH: MEASURED G Modern value: G = 6.674*10 -11 Nm 2 /kg 2

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Universal Gravitation

Celestial. Universal Gravitation. Terrestrial. Sir Isaac Newton 1642-1727 . UNIVERSAL GRAVITATION. +F. -F. For any two masses in the universe:. F = G m 1 m 2 /r 2. G = a constant later evaluated by Cavendish. m 2. m 1. r. CAVENDISH: MEASURED G. Modern value:

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Universal Gravitation

Celestial. Universal Gravitation. Terrestrial. Sir Isaac Newton 1642-1727 . UNIVERSAL GRAVITATION. +F. -F. For any two masses in the universe:. F = G m 1 m 2 /r 2. G = a constant later evaluated by Cavendish. m 2. m 1. r. CAVENDISH: MEASURED G. Modern value:

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Universal Gravitation

Universal Gravitation. Physics. Warm-Ups. What is Newtonian Synthesis? Same laws of physics that apply to Earth, also apply to the heavens. Warm-ups.

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Exploring our Solar System

Exploring our Solar System. P2f part 2. Objectives. In this lesson we should learn: about the distances involved in space travel about manned and unmanned space flight how very large distances are measured in space . Outcomes. Foundation Paper You should now be able to..

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Gravitational Fields

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Potential & Kinetic Energy

Potential & Kinetic Energy. An object can store energy as the result of its position . Potential energy is the stored energy of position possessed by an object. For example, the heavy ball of a demolition machine is storing energy when it is held at an elevated position. .

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Universal Law of Gravitation

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Gravity

Gravity. Forces hold the universe together. Gravity. Holds stars together otherwise they would explode into space from the nuclear reactions Holds solar systems together otherwise we would drift off into the frigid emptiness Eureka Episode 6: Gravity

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Mass, Force and Gravity

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Forces

Forces. LO:. Force and acceleration. F. M. A. If the forces acting on an object are unbalanced then the object will accelerate, like these wrestlers:. Force (in N) = Mass (in kg) x Acceleration (in m/s 2 ). Force, mass and acceleration. F. M. A.

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Chapter 21 Physics

Chapter 21 Physics. Electric charges. Two types of Electric charge one called positive and the other negative. When charges are the same in an object it is neutral. An object can lose or gain an electric charge therefore it has a net charge . Charge stability.

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9: Motion in Fields

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