Accelerated Deorbiting of MEO Satellites Using Low-Thrust Propulsion and Resonant Perturbations

In the medium Earth orbit (MEO) region, lunisolar secular resonances can lead to long-term eccentricity growth over timescales of centuries. To accelerate the orbital decay of end-of-life satellites, this study proposes a strategy that uses low-thrust maneuvers to relocate them into resonant zones where orbital lifetimes are significantly reduced. Lifetime distribution maps for GPS- and Galileo-like orbits, constructed on the (Ω,ω) plane using a double-averaged Hamiltonian model, reveal extensive regions where the orbital lifetimes are less than 100 years or between 100 and 200 years. These resonant zones are, therefore, optimal targets for end-of-life post-mission disposal (PMD). By combining low-thrust maneuvers with natural dynamical resonances, the proposed strategy enables a substantial reduction in lifetime with minimal fuel consumption, offering a cost-effective approach to satellite deorbiting. Theoretical feasibility is demonstrated through representative transfer scenarios, although further analysis is needed to assess its practical implementation under operational constraints.

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Publication Details

Journal
Journal of Aerospace Engineering
Published
2025-12-27
DOI
https://doi.org/10.1061/jaeeez.aseng-6751
Primary Topic
Spacecraft Dynamics and Control
Type
article
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article

Accelerated Deorbiting of MEO Satellites Using Low-Thrust Propulsion and Resonant Perturbations

Runxiang Huang, Chunyu Wang, Xiaodong Liu, K X Yang et al.
Journal of Aerospace Engineering
Spacecraft Dynamics and Control
article

Accelerated Deorbiting of MEO Satellites Using Low-Thrust Propulsion and Resonant Perturbations

Runxiang Huang, Chunyu Wang, Xiaodong Liu, K X Yang, Jinglang Feng
article en

Abstract

In the medium Earth orbit (MEO) region, lunisolar secular resonances can lead to long-term eccentricity growth over timescales of centuries. To accelerate the orbital decay of end-of-life satellites, this study proposes a strategy that uses low-thrust maneuvers to relocate them into resonant zones where orbital lifetimes are significantly reduced. Lifetime distribution maps for GPS- and Galileo-like orbits, constructed on the (Ω,ω) plane using a double-averaged Hamiltonian model, reveal extensive regions where the orbital lifetimes are less than 100 years or between 100 and 200 years. These resonant zones are, therefore, optimal targets for end-of-life post-mission disposal (PMD). By combining low-thrust maneuvers with natural dynamical resonances, the proposed strategy enables a substantial reduction in lifetime with minimal fuel consumption, offering a cost-effective approach to satellite deorbiting. Theoretical feasibility is demonstrated through representative transfer scenarios, although further analysis is needed to assess its practical implementation under operational constraints.

Journal of Aerospace EngineeringVol. 39(2)
University of Strathclyde (GB)
Affordable and clean energy
Openalex Percentile: Top 22%
Spacecraft Dynamics and Control
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Accelerated Deorbiting of MEO Satellites Using Low-Thrust Propulsion and Resonant Perturbations — Runxiang Huang, Chunyu Wang, et al. · Journal of Aerospace Engineering (2025) | TGRS Research Map | TGRS