Images

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The first, second, third and fourth order space by time equations.

 

 

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The first, second and third order space by time equations.

 

GH_20161214_1.png

 

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The product rule of differentiation

 

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Movement of an object on an aging spring

 

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Energy of an object on an aging spring

 

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Energy dE = F dx differentiated twice by time

 

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Fixed aging spring integrated by dt for a contant velocity movement.

 

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Fixed aging spring integrated by dx

 

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Fixed aging spring integrated by discrete steps dx

 

 

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The calculation of Lagrange (1736-1813) second order.

 

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The relativistic differentiation of the fourth impulse component by time from Prof.dr.ir. JJJ Kokkedee (1935-2013).

 

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A force times velocity has three differentiation.

 

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The aging spring differential equation

 

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Can you differentiate a force?

 

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Suppose the energy in a system is E(x,t) = g(t) h(x). So a time dependent part and a position dependent part.

 

 

 

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The qv x delta x electrical field is qv x -1 magnetic field lead to :

the dF_action/dt = -1 dF_reaction/dt

 

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A rotatinng graviational ellipse with an extra relation.

 

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A rotatinng graviational ellipse.

 

y\ =\ \pi\ -4\sum_{n=1}^{100000000}\frac{1}{2n-1}\left(-1\right)^{1+n}