Optimization of Earth-Moon Low-Thrust-Enhanced Low-Energy Transfer

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Author(s)
Takubo, Yuji
Shimane, Yuri
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Daniel Guggenheim School of Aerospace Engineering
The Daniel Guggenheim School of Aeronautics was established in 1931, with a name change in 1962 to the School of Aerospace Engineering
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Abstract
This work proposes an optimization method for the novel class of lunar transfer that leverages both low-thrust acceleration and weak stability boundary effects simultaneously. Such translunar orbits are aimed at filling the gap that exists in conventional transfer options in the trade-off between the time of flight and mass ratio. We first generate the candidates for the initial guess via backward propagation from a cislunar periodic orbit. These trajectories are corrected into feasible solutions, then further optimized based on a multiple-shooting method with a Sims-Flanagan transcription. The obtained transfer time of the solutions is around 45-70 days, which is almost half of the traditional ballistic transfers (90-110 days) with a few percent increase in its propellant mass, showing a huge benefit of performing the low-thrust propulsion in the Earth-Moon low-energy transfer.
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Date
2023-08
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