In this Paper, we proposed two new predictor corrector methods for solving Kepler's equation in hyperbolic case using quadrature formula which plays an important and significant rule in the evaluation of the integrals. The two procedures are developed that, in two or three iterations, solve the hyperbolic orbit equation in a very efficient manner, and to an accuracy that proves to be always better than 10-15. The solution is examined with and with grid size , using the first guesses hyperbolic eccentric anomaly is and , where is the eccentricity and is the hyperbolic mean anomaly
Quadratic Newton-Raphson iteration techniques for numerical solutions of Keplers universal transcend...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for se...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for se...
Context. This paper introduces a new approach for solving the Kepler equation for hyperbolic orbits....
Context. This paper introduces a new approach for solving the Kepler equation for hyperbolic orbits....
The Space Surveillance Network detects and registers Earth-orbiting man-made objects of a size large...
The Space Surveillance Network detects and registers Earth-orbiting man-made objects of a size large...
Context. Many algorithms to solve Kepler’s equations require the evaluation of trigonometric or root...
A the core of any autonomous rendezvous guidance system must be two algorithms for solving Lambert's...
Kepler's Equation is solved over the entire range of elliptic motion by a fifth-order refinement of ...
In recent years, high-order methods have shown to be very useful in many practical applications, in ...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for several highly de...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for several highly de...
Abstract. In this paper, an efficient iterative method of arbitrary integer order of convergence ≥ 2...
Simulating the dynamics of the Sun–Earth–Moon system with a standard algorithm yields a dramatically...
Quadratic Newton-Raphson iteration techniques for numerical solutions of Keplers universal transcend...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for se...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for se...
Context. This paper introduces a new approach for solving the Kepler equation for hyperbolic orbits....
Context. This paper introduces a new approach for solving the Kepler equation for hyperbolic orbits....
The Space Surveillance Network detects and registers Earth-orbiting man-made objects of a size large...
The Space Surveillance Network detects and registers Earth-orbiting man-made objects of a size large...
Context. Many algorithms to solve Kepler’s equations require the evaluation of trigonometric or root...
A the core of any autonomous rendezvous guidance system must be two algorithms for solving Lambert's...
Kepler's Equation is solved over the entire range of elliptic motion by a fifth-order refinement of ...
In recent years, high-order methods have shown to be very useful in many practical applications, in ...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for several highly de...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for several highly de...
Abstract. In this paper, an efficient iterative method of arbitrary integer order of convergence ≥ 2...
Simulating the dynamics of the Sun–Earth–Moon system with a standard algorithm yields a dramatically...
Quadratic Newton-Raphson iteration techniques for numerical solutions of Keplers universal transcend...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for se...
Context. The repetitive solution of Kepler’s equation (KE) is the slowest step for se...