A particle moves in a potential region given by \(\sf U=8x^2-4x+400\) J. Its state of equilibrium will be
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OpenStudy (abhisar):
@Michele_Laino
OpenStudy (michele_laino):
we have to request that the subsequent condition holds:
\[\Large \frac{{\partial U}}{{\partial x}} = 0\]
OpenStudy (abhisar):
Oh, so you mean we have to solve the equation for u=0?
OpenStudy (michele_laino):
not for U=0, its first derivative with respect to x has to be equal to zero, since, in a field of force coming from a potential, the relationship between force and potential energy is:
\[\Large {\mathbf{F}} = - \nabla U\]
OpenStudy (abhisar):
Oh, one min....
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OpenStudy (abhisar):
Ok, yes. Thanks a bunch c:
OpenStudy (michele_laino):
thus we get the subsequent condition:
\[\Large {x_0} = \frac{1}{4}\]
as equilibrium position
OpenStudy (michele_laino):
:)
OpenStudy (abhisar):
Yes... c:
OpenStudy (michele_laino):
:)
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OpenStudy (unklerhaukus):
now, the sign of the second derivative at this point, will determine whether this equilibrium point is stable or unstable