Widdekind Posted October 4, 2013 Posted October 4, 2013 http://en.wikipedia.org/wiki/Hamilton–Jacobi_equation The "Classical" HJ equation [math]H + \frac{\partial S}{\partial t} = 0[/math] where the action [math]S = \int L dt[/math] gives rise to [math]\Psi = \Psi_0 e^{i \frac{S}{\hbar}}[/math] so the phase of wave-functions, at some particular point, is equal to the time integral, of the action, at that point, from [math]t=-\infty[/math] to the current time ?
TrappedLight Posted October 5, 2013 Posted October 5, 2013 Yes it describes the scattered waveform in terms of the action. Notice the exponential is dimensionless as well.
SaganWannaBeWannaBe Posted October 5, 2013 Posted October 5, 2013 Hi guys, layman here. Can you give an example (in laymen's terms) of how you'd actually apply or use the math above in a real world situation?
TrappedLight Posted October 5, 2013 Posted October 5, 2013 Hi guys, layman here. Can you give an example (in laymen's terms) of how you'd actually apply or use the math above in a real world situation? The Schrodinger equation, the wave equation of all matter makes large use of the exponential in the OP. The HJ equation in particular is useful in helping to describe conserved quantities in physics.
SaganWannaBeWannaBe Posted October 10, 2013 Posted October 10, 2013 OP? And when you say useful to describe conserved quantities...do you mean like physicists might use the HJ in accounting for data gathered from a collider, for example?
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