activity
20122020
most citedExistence of a lower bound for the distance between point masses of relative equilibria for generalised quasi-homogeneous -body problems and the curved -body problem

8 citations · 8 across the 1 of their papers we have counts for

collaborators

6 papers

math.CA2020

Positive elliptic-elliptic rotopulsators on Clifford tori of nonconstant size project onto regular polygons

Pieter Tibboel

Let ,..., be the position vectors of the point masses of the curved -body problem. Consider any positive elliptic-elliptic rotopulsator solution $q_{i}^{T}=(r\cos{…

math.CA2020

Equal masses results for choreographies -body problems

Pieter Tibboel

We prove that equally spaced choreography solutions of a large class of -body problems including the classical -body problem and a subset of quasi-homogeneous -body proble…

math-ph2018

Circular non-collision orbits for a large class of n-body problems

Pieter Tibboel

We prove for a large class of n-body problems including a subclass of quasihomogeneous n-body problems, the classical n-body problem, the n-body problem in spaces of negative const…

math-ph2016

Finiteness of polygonal relative equilibria for generalised quasi-homogeneous -body problems and -body problems in spaces of constant curvature

Pieter Tibboel

We prove for generalisations of quasi-homogeneous -body problems with center of mass zero and -body problems in spaces of negative constant Gaussian curvature that if the mas…

math.DS20158 cited

Existence of a lower bound for the distance between point masses of relative equilibria for generalised quasi-homogeneous -body problems and the curved -body problem

Pieter Tibboel

We prove that if for relative equilibrium solutions of a generalisation of quasi-homogeneous -body problems the masses and rotation are given, then the minimum distance between…

math.DS2012

Existence of a class of rotopulsators

Pieter Tibboel

We prove the existence of a class of rotopulsators for the n-body problem in spaces of constant curvature of dimension k>=2.