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| | On the Integration of the N-Body Problem Equations |
 | | In paper [2] we considered the general positions of classical mechanics from the point of view of the the theory of manifold transforms, which represent, in appearance, a geometrical method of solutions of the differential equations of dynamics. |
 | | Yet, precisely in connection with his working up of the theory of differential equations, Euler proved the theorem of elliptical differentials [23], which is a first step towards a general theory of conic sections, setting up a law of their composition as simple events. |
 | | And, in reality, the {projectivization} of a manifold transforms the differential equations of geodesics, the non-linear equations of Newton, to total differentials ([32, 33], {ct.} [34]), (because) the components of integrations are inside the structure of the coordinates, which are given by a complicated proportion [35, 36]. |
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