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AST 301 Introduction to Astronomy
AST 301 Introduction to Astronomy

Linear and angular concepts
Linear and angular concepts

... body that is rotating remains rotating straight line unless acted upon by an unless acted upon by an outside torque. outside force. Inertia is the property of a body that resists changes in position or linear motion. ...
Forces
Forces

Chapter 5 Mutual actions in machinery elements
Chapter 5 Mutual actions in machinery elements

CP Physics Chapter 7
CP Physics Chapter 7

CTRIIa
CTRIIa

... At what point(A, B, C or D) is the elastic potential of the spring energy a maximum? Answer: D, when the spring is fully compressed At what point is the gravitational potential energy a maximum? Answer: A, at the maximum height. At what point is the kinetic energy a maximum? Answer: C, which is when ...
1 Chapter 5: Work and Energy (pages 159 182) Dat
1 Chapter 5: Work and Energy (pages 159 182) Dat

Physics Problem Checklist
Physics Problem Checklist

... This is a checklist for solving mechanics problems involving moving objects with mechanical energy and momentum and possibly under the influences of forces. It will not be useful for more simple kinematics problems, where you are told something about an objects motion (position, velocity, accelerati ...
This review is not comprehensive it covers most but not all topics
This review is not comprehensive it covers most but not all topics

Potential Energy and Conservation of Mechanical Energy
Potential Energy and Conservation of Mechanical Energy

Document
Document

... object moving through the medium The magnitude of depends on the medium The direction of is opposite the direction of motion of the object relative to the medium nearly always increases with increasing speed ...
Physical Science Chapter 1 & 2 Motion & Force
Physical Science Chapter 1 & 2 Motion & Force

... Force = mass x acceleration 1. Newton’s Second Law of Motion – The net force on an object is equal to the product of its acceleration and its mass: 2. mass= Force / acceleration 3. acceleration = force / mass ...
Two objects are acted on by equal forces for equal times
Two objects are acted on by equal forces for equal times

... Part A-Multiple Choice. 4 points each. Choose the best answer and write it on the line to the left of the question number. ________1. Two ice hockey pucks collide on a frictionless surface. In considering conservation of momentum of the two-puck system, we would break the total momentum into x and ...
Lab 7: Conservation of Mechanical Energy
Lab 7: Conservation of Mechanical Energy

Ch. 8 Conceptual and Mathematical Questions
Ch. 8 Conceptual and Mathematical Questions

Gravitational Potential Energy
Gravitational Potential Energy

KE = ½ m v2
KE = ½ m v2

... We all use devices every day that use energy - or more accurately, transfer energy from one form to another. Everything we use wastes energy - some of the energy transfers into forms that are not useful to us. For example when driving a car, energy from burning fuel is transferred into kinetic energ ...
Chapter 3 Review
Chapter 3 Review

... Choose the answer that best completes each of the following sentences. Write the letter for that answer on the line to the left of each question. _______6. The upward force on an object falling through the air is ____. a. air resistance c. momentum b. inertia d. terminal velocity _______7. The relat ...
Potential and Kinetic Energy
Potential and Kinetic Energy

... Potential energy is stored energy. The formula for the potential energy of an object is: Ep = mgh where m equals mass in kilograms, g is the acceleration of gravity, and h equals the height of the object. The mass (m) of the object times the acceleration of gravity (g) is the same as the weight of t ...
Energy
Energy

Newton`s First Law of Motion
Newton`s First Law of Motion

... mass—which is roughly the amount of material present in the object  Mass is NOT volume, the measure of space that an object takes up  Mass is NOT weight, the force of gravity on an object  Mass is a measure of the inertia that an object exhibits in response to any effort made to start it, stop it ...
PH211GeneralPhysicsCalculus_CrsOutline2012
PH211GeneralPhysicsCalculus_CrsOutline2012

Lesson 11
Lesson 11

moment of inertia
moment of inertia

Work and Energy
Work and Energy

< 1 ... 281 282 283 284 285 286 287 288 289 ... 388 >

Hunting oscillation



Hunting oscillation is a self-oscillation, usually unwanted, about an equilibrium. The expression came into use in the 19th century and describes how a system ""hunts"" for equilibrium. The expression is used to describe phenomena in such diverse fields as electronics, aviation, biology, and railway engineering.
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