Difference between revisions of "Trajectory"
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| − | As part of the Betha Chemistry Tutorial created by the Ohio State University's Department of Chemistry, the following explanation was given: | + | As part of the Betha [[Chemistry]] Tutorial created by the [[Ohio State University]]'s Department of Chemistry, the following explanation was given: |
{{quotebox|The x, y and z coordinates of a particle as a function of time are known as the trajectory or orbit of a particle. The laws of classical physics predict the trajectory of a particle for all times once the position and velocity are known at some initial time. For example, if the position and velocity of a cannonball are known at the instant it leaves a cannon, the classical mechanics can predict the path taken by the cannonball at later times and where it will land. <ref>[http://www.chemistry.ohio-state.edu/betha/qm/1bfrb.html "An Introduction to Quantum Mechanics" at Ohio State University]</ref>}} | {{quotebox|The x, y and z coordinates of a particle as a function of time are known as the trajectory or orbit of a particle. The laws of classical physics predict the trajectory of a particle for all times once the position and velocity are known at some initial time. For example, if the position and velocity of a cannonball are known at the instant it leaves a cannon, the classical mechanics can predict the path taken by the cannonball at later times and where it will land. <ref>[http://www.chemistry.ohio-state.edu/betha/qm/1bfrb.html "An Introduction to Quantum Mechanics" at Ohio State University]</ref>}} | ||
| − | ==References | + | ==References== |
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<references/> | <references/> | ||
Revision as of 15:32, July 31, 2008
As part of the Betha Chemistry Tutorial created by the Ohio State University's Department of Chemistry, the following explanation was given:
The x, y and z coordinates of a particle as a function of time are known as the trajectory or orbit of a particle. The laws of classical physics predict the trajectory of a particle for all times once the position and velocity are known at some initial time. For example, if the position and velocity of a cannonball are known at the instant it leaves a cannon, the classical mechanics can predict the path taken by the cannonball at later times and where it will land. [1]