Improved Initial Guesses for Numerical Solutions of Kepler's Equation
Kevin J Napier

TL;DR
This paper introduces new initial guess methods for solving Kepler's Equation, significantly enhancing computational efficiency especially for hyperbolic orbits through symbolic regression and genetic algorithms.
Contribution
It presents novel initial guess formulas derived via symbolic regression and genetic learning, improving the speed of iterative solutions for elliptical and hyperbolic orbits.
Findings
Modest speed improvements for elliptical orbits
Major speed improvements for hyperbolic orbits
Simple implementation of new initial guesses
Abstract
Numerical solutions of Kepler's Equation are critical components of celestial mechanics software, and are often computation hot spots. This work uses symbolic regression and a genetic learning algorithm to find new initial guesses for iterative Kepler solvers for both elliptical and hyperbolic orbits. The new initial guesses are simple to implement, and result in modest speed improvements for elliptical orbits, and major speed improvements for hyperbolic orbits.
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Taxonomy
TopicsExperimental and Theoretical Physics Studies · Dynamics and Control of Mechanical Systems · Mechanical Engineering and Vibrations Research
