- published: 16 Jan 2016
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In mathematical physics, equations of motion are equations that describe the behaviour of a physical system in terms of its motion as a function of time. More specifically, the equations of motion describe the behaviour of a physical system as a set of mathematical functions in terms of dynamic variables: normally spatial coordinates and time are used, but others are also possible, such as momentum components and time. The most general choice are generalized coordinates which can be any convenient variables characteristic of the physical system. The functions are defined in a Euclidean space in classical mechanics, but are replaced by curved spaces in relativity. If the dynamics of a system is known, the equations are the solutions to the differential equations describing the motion of the dynamics.
There are two main descriptions of motion: dynamics and kinematics. Dynamics is general, since momenta, forces and energy of the particles are taken into account. In this instance, sometimes the term refers to the differential equations that the system satisfies (e.g., Newton's second law or Euler–Lagrange equations), and sometimes to the solutions to those equations.
Please don't forget to leave a like if you found this helpful! Projectile motion/2D suvat: https://youtu.be/p30tWWEElxU Leave a comment suggesting what I can cover next.
Here's how to derive the 4 major kinematic equations (aka: equations of motion) that are used to describe the motion of particles in physics. I show how to derive the both with and without calculus. These equations are valid only if accleration is constant. Acceleration can be equal to zero, however it can't change. If you have a changing acceleration, then calculus must be used to get a different set of equations. http://www.alexpleasehelp.com
Learn complete Physics for IIT JEE for free. Browse through topics and tons of solved examples to practice solving easy and tough problems.
Graphical Derivation of Kinematics Equations of Motion
Differential Equations of Motion Instructor: Gilbert Strang http://ocw.mit.edu/highlights-of-calculus License: Creative Commons BY-NC-SA More information at http://ocw.mit.edu/terms More courses at http://ocw.mit.edu Subtitles are provided through the generous assistance of Jimmy Ren.
In this video I show you how to derive the equations of motion using simple Calculus (integration) techniques and some simple algebra (factorisation/expansion).
You know the equations of motion, but where do they come from? This video shows how you can use a simple velocity-time graph to derive the four suvat equations. Remember the gradient is equal to the acceleration and the area is equal to the displacement. If you would like to see more A Level Physics videos then please Subscribe to my channel to keep updated with new videos and to search the Playlists already created. You can also visit my site 'A Level Physics Online' to see how all the videos relate to your course and for even more resources at http://www.alevelphysicsonline.com/ Thanks for watching, Mr Matheson
SEE DESCRIPTION BELOW for links to sub-sections in this video. This video shows how the equations of motion for constant acceleration (sometimes called the SUVAT or XUVAT equations) are derived. It also gives a recap on velocity-time graphs, and gives some advise on how to use the equations in calculations. 0:39 Acceleration and v=u+at 1:55 Velocity time graph examples 5:42 x,u,v,a,t terms and units defined 5:57 x=(u+v)/2 derived 6:57 x=ut + ½ at^2 derived 8:25 x=vt - ½ at^2 derived 9:26 v^2 = u^2 + 2ax derived 10:58 Tips on using the equations of motion
An introduction to the equations of motion (commonly known as the suvat equations). By Cowen Physics (www.cowenphysics.com)
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12. kinematics Equations of motion JEE mains and Advanced
In this video, we derive the full nonlinear equations of motion for the classic inverted pendulum problem. Although the Lagrange formulation is more elegant, this video uses a simpler Newtonian approach that anyone with sophomore-level engineering dynamics should be able to understand.
MIT 2.003SC Engineering Dynamics, Fall 2011 View the complete course: http://ocw.mit.edu/2-003SCF11 Instructor: J. Kim Vandiver License: Creative Commons BY-NC-SA More information at http://ocw.mit.edu/terms More courses at http://ocw.mit.edu
Lecture Series on Dynamics of Machines by Prof. Amitabha Ghosh Department of Mechanical Engineering IIT Kanpur For more details on NPTEL visit http://nptel.iitm.ac.in
Covers sketching parametric curves, eliminating the parameter, and applications of parametric functions, specifically projectile motion. Table of Contents... Parametric Equations in the Calculator... 5:39 Sketching and Eliminating Parameters...14:51 Proof of the Equations of Motion...34:47 Parametric Equations of Motion...39:58 Projectile Motion Example...44:03
Many of the videos in this channel are video lessons for grade 11 and 12 physics courses. The homepage for these course can be found at.... www.chatt.hdsb.ca/~killinst/
In this video, I derived the equations of motion for Foucault Pendulum and solved the equations of motion using Matlab ode function.