Computational geometry

Kinetic smallest enclosing disk

A kinetic smallest enclosing disk data structure is a kinetic data structure that maintains the smallest enclosing disk of a set of moving points. (Wikipedia).

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Physics 4.1 Newton's Laws Examples (6 of 25) Pulley and Inclined Plane: Ex. 2

Visit http://ilectureonline.com for more math and science lectures! In this video I will find the MINIMUM mass (M) needed to prevent movement of a 2 masses on a pulley and inclined plane. (Example 2) Next video in this series can be seen at: https://youtu.be/HMNfCWSD8ec

From playlist PHYSICS 4.2 THE INCLINED PLANE

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Kinetic Friction and Static Friction #Physics #Shorts

#Physics #Math #Science #Engineering #NicholasGKK #Shorts

From playlist General Mechanics

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Momentum (13 of 16) Elastic Collisions, Example 3

Worked example for momentum and perfectly elastic collisions. Shows how to determine the final velocity of both masses when a mass in motion collides with a second mass that is also in motion in the same direction. Mass 1 is greater than mass 2. After the collision each mass has a differen

From playlist Momentum, Impulse, Inelastic and Elastic Collisions

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8.01x - Module 08.03 - Resistive Forces Air Drag, Liquids, Spherical Objects.

Resistive Forces Air Drag, Liquids, Spherical Objects.

From playlist 8.01x - MIT Help Sessions

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Momentum (7 of 16) Inelastic Collisions, Example 1

Worked example for momentum and inelastic collisions. Shows how to determine the final velocity when an object in motion collides with a second object that is at rest. After the collision the two objects stick together and move off at the same final velocity. This problem uses conservati

From playlist Momentum, Impulse, Inelastic and Elastic Collisions

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Momentum (9 of 16) Inelastic Collisions, Example 3

Worked example for momentum and inelastic collisions. Shows how to determine the final velocity when an object in motion collides inelastically with a second object that is moving in the same direction. After the collision the two objects stick together and move off at the same final veloc

From playlist Momentum, Impulse, Inelastic and Elastic Collisions

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Physics 4.1 Newton's Laws Examples (13 of 25) Minimum Force Required

Visit http://ilectureonline.com for more math and science lectures! In this video I will find the minimum force (F(min)=?) required to accelerate (a=?) a mass (m) across a horizontal surface with frictions. Next video in this series can be seen at: https://youtu.be/MXbk_yf0qQo

From playlist PHYSICS 4.1 NEWTON'S LAWS EXAMPLES

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Descriptions of the Grain-Growth Structure - Jeremy Mason

Jeremy Mason Institute for Advanced Study October 12, 2010 For more videos, visit http://video.ias.edu

From playlist Mathematics

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Momentum (14 of 16) Elastic Collisions, Example 4

Worked example for momentum and perfectly elastic collisions. Shows how to determine the final velocity of both masses when a mass in motion collides with a second mass that is also in motion in the same direction. Mass 1 is less than mass 2. After the collision each mass has a different f

From playlist Momentum, Impulse, Inelastic and Elastic Collisions

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Chapter 10.2.1: Edgerton's boomer

MIT Electromagnetic Fields and Energy, Textbook Components with Video Demonstrations View the complete course: http://ocw.mit.edu/RES6-001S08 Instructor: Markus Zahn, James R. Melcher, Manuel L. Silva License: Creative Commons BY-NC-SA More information at http://ocw.mit.edu/terms More cou

From playlist Electromagnetic Fields & Energy, Textbook Components w Video

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Pressure Demo: Balloons in Liquid Nitrogen

This is a demonstration of the ideal gas law. Balloons placed in liquid nitrogen shrink because the decreasing temperature of the gas inside the balloons causes the volume to decrease. This demonstration was created at Utah State University by Professor Boyd F. Edwards, assisted by James

From playlist Demos 14. The Ideal Gas Law and Kinetic Theory

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Statistical Mechanics of Gravitational N-Body Systems - S. Tremaine - 2/24/2015

Introduction by Peter Goldreich. Learn more about the Inaugural Celebration and Symposium of the Walter Burke Institute for Theoretical Physics: https://burkeinstitute.caltech.edu/workshops/Inaugural_Symposium Produced in association with Caltech Academic Media Technologies. ©2015 Califo

From playlist Walter Burke Institute for Theoretical Physics - Dedication and Inaugural Symposium - Feb. 23-24, 2015

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Collisionless Dynamics and Smoothed Particle Hydrodynamics, Part 2 - Volker Springel

Collisionless Dynamics and Smoothed Particle Hydrodynamics, Part 2 Volker Springel Max Planck Institute for Astrophysics July 15, 2009

From playlist PiTP 2009

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Marcello Porta - Correlation energy of a weakly interacting Fermi gas

Marcello Porta (SISSA) Correlation energy of a weakly interacting Fermi gas. In this talk I will discuss the ground state properties of homogeneous, interacting Fermi gases, in the mean-field regime. In this regime, Hartree-Fock theory provides a good approximation for the ground state e

From playlist Large-scale limits of interacting particle systems

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Lecture 28 - Angular Momentum, part C - Ph1121 Physics - Classical Mechanics

Physics PH 1121 Classical Mechanics - Week 9 Day 3 *** Go Full Screen and make sure you click the gear icon and choose HD. Playlist for classical mechanics course: https://www.youtube.com/playlist?list=PL6LNFNTCXeCaDAxx7lxcS4yEK3qFPNvD1 17:50 - The tides on Earth are caused primarily by

From playlist PH1121

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Static and Kinetic Friction Examples

Static and Kinetic Friction Examples

From playlist Physics

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9.4 Newton’s Second Law for Rotational Motion About a Fixed Axis

This video covers Section 9.4 of Cutnell & Johnson Physics 10e, by David Young and Shane Stadler, published by John Wiley and Sons. The lecture is part of the course General Physics - Life Sciences I and II, taught by Dr. Boyd F. Edwards at Utah State University. This video was produced

From playlist Lecture 9A. Rotational Dynamics

Related pages

Approximation algorithm | Duality (projective geometry) | Voronoi diagram | Delaunay triangulation | Kinetic diameter (data)