
doi: 10.2514/3.21719
Summary: The universal formulation for the perturbed two-body problem is generalized to cover all gravitational \(N\)-body problems involving a dominant central mass. Its efficiency, when compared to conventional numerical integration, is shown in several examples. The convergence and numerical stability of the method is discussed, and a universal state transition matrix is obtained, which can be used either in a process of differential correction of an orbit or, as in the present case, to obtain an accurate estimation of global errors.
convergence, numerical stability, dominant central mass, Computational methods for problems pertaining to mechanics of particles and systems, transition matrix, estimation of global errors, perturbed two-body problem, \(n\)-body problems
convergence, numerical stability, dominant central mass, Computational methods for problems pertaining to mechanics of particles and systems, transition matrix, estimation of global errors, perturbed two-body problem, \(n\)-body problems
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