Non-Coplanar Rendezvous in Near-Circular Orbit with the Use a Low Thrust Engine of a
circular orbit.Simplified mathematical models of motion are used to solve this problem
Cylindrically symmetric wormholes WhC R e: The motion of test particles to the unstable
circular orbit of radius uc. For D2>Dc2 there are two kinds of
orbits:
orbits of the first kind
Cylindrically symmetric wormholes WhC R e: The motion of test particles to the unstable
circular orbit of radius uc. For D2>Dc2 there are two kinds of
orbits:
orbits of the first kind
Cylindrically symmetric wormholes WhC R e: The motion of test particles to the unstable
circular orbit of radius uc. For D2>Dc2 there are two kinds of
orbits:
orbits of the first kind
Cylindrically symmetric wormholes WhC R e: The motion of test particles to the unstable
circular orbit of radius uc. For D2>Dc2 there are two kinds of
orbits:
orbits of the first kind
Optimization of the finite-thrust trajectory in the vicinity of a circular orbit of the
circular orbit. The fixed-time rendezvous missions are considered. The Hill-Clohessy-Wiltshire equations
Low-Energy Sub-Optimal Low-Thrust Trajectories to Libration Points and Halo-Orbits and calculating a low-thrust trajectory from an initial
circular Earth
orbit to the given point of this manifold
Stability analysis of circular geodesics in dyonic dilatonic black hole spacetimes, the innermost stable
circular orbit (ISCO) is determined by reducing the problem to solving a fourth