A numerical approach for obtaining periodic orbits of satellite relative motion is proposed, based on using the time domain collocation (TDC) method to search for the periodic solutions of an exact J2 nonlinear relative model. The initial conditions for periodic relative orbits of the Clohessy-Wiltshire (C-W) equations or Tschauner-Hempel (T-H) equations can be refined with this approach to generate nearly bounded orbits. With these orbits, a method based on the least-squares principle is then proposed to generate projected closed orbit (PCO), which is a reference for the relative motion control. Numerical simulations reveal that the presented TDC searching scheme is effective and simple, and the projected closed orbit is very fuel saving
Future spacecraft formation flying missions will require accurate autonomous guidance systems to cal...
With high-precision DEM (Digital Elevation Model) and GMTI (Ground Moving Target Indicator) as the d...
A concise, novel description is presented of near-circular satellite motion at arbitrary inclination...
In this paper, the monodromy variant of Newton’s method is applied to locate periodic or quasi-perio...
This report presents the canonical Hamiltonian formulation of relative satellite motion. The unpertu...
Formation flying is a key technology enabling a number of missions which a single satellite cannot a...
This paper presents closed-form solutions for the problem of long-term satellite relative motion in ...
Periodic orbits with respect to an object in an eccentric Keplerian reference orbit can be found in ...
The possibility of obtaining a natural periodic relative motion of formation flying Earth satellites...
Relative spacecraft motion has long been a problem for mission analysts who plan rendezvous maneuver...
In the dynamical model of relative motion with circular reference orbit, the equilibrium points are ...
The possibility of obtaining a natural periodic relative motion of formation flying Earth satellites...
There is an increasing interest in missions employing groups of satellites flying in formations and ...
Relative spacecraft motion has long been a problem for mission analysts who plan rendezvous maneuver...
A Newton-type method is proposed to improve the accuracy of control for relative motion of two satel...
Future spacecraft formation flying missions will require accurate autonomous guidance systems to cal...
With high-precision DEM (Digital Elevation Model) and GMTI (Ground Moving Target Indicator) as the d...
A concise, novel description is presented of near-circular satellite motion at arbitrary inclination...
In this paper, the monodromy variant of Newton’s method is applied to locate periodic or quasi-perio...
This report presents the canonical Hamiltonian formulation of relative satellite motion. The unpertu...
Formation flying is a key technology enabling a number of missions which a single satellite cannot a...
This paper presents closed-form solutions for the problem of long-term satellite relative motion in ...
Periodic orbits with respect to an object in an eccentric Keplerian reference orbit can be found in ...
The possibility of obtaining a natural periodic relative motion of formation flying Earth satellites...
Relative spacecraft motion has long been a problem for mission analysts who plan rendezvous maneuver...
In the dynamical model of relative motion with circular reference orbit, the equilibrium points are ...
The possibility of obtaining a natural periodic relative motion of formation flying Earth satellites...
There is an increasing interest in missions employing groups of satellites flying in formations and ...
Relative spacecraft motion has long been a problem for mission analysts who plan rendezvous maneuver...
A Newton-type method is proposed to improve the accuracy of control for relative motion of two satel...
Future spacecraft formation flying missions will require accurate autonomous guidance systems to cal...
With high-precision DEM (Digital Elevation Model) and GMTI (Ground Moving Target Indicator) as the d...
A concise, novel description is presented of near-circular satellite motion at arbitrary inclination...