Semi-analytical computation of bifurcation of orbits near collinear libration point in the restricted three-body problem

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-10-13 DOI:10.1016/j.physd.2024.134404
Mingpei Lin , Tong Luo , Hayato Chiba
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Abstract

A unified semi-analytical solution is presented for constructing the phase space near collinear libration points in the Circular Restricted Three-body Problem (CRTBP), encompassing Lissajous orbits, quasihalo orbits, Axial orbits, and their invariant manifolds, as well as transit and non-transit orbits. Based on classical in-plane and out-of-plane frequency resonance mechanisms, the Lindstedt–Poincaré method could only derive separate analytical solutions for the invariant manifolds of Lissajous orbits and halo orbits, falling short for the invariant manifolds of quasihalo orbits. In this paper, by introducing a coupling coefficient η and a bifurcation equation, a unified series solution for these orbits is systematically developed using a coupling-induced bifurcation mechanism and Lindstedt–Poincaré method. Analyzing the bifurcation equation obtained from different coupling forms reveals bifurcation conditions for all kinds of orbits near collinear libration points. When η = 0, the series solution describes non-bifurcated orbits, while when η ≠ 0, the solution describes bifurcated orbits, including quasihalo orbits, Axial orbits, and their invariant manifolds, as well as newly bifurcated transit and non-transit orbits. This unified semi-analytical framework provides a more comprehensive understanding of the complex phase space structures near collinear libration points in the CRTBP.
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受限三体问题中碰撞自由点附近轨道分岔的半解析计算
本文提出了一种统一的半解析解,用于构建环形受限三体问题(CRTBP)中碰撞天平点附近的相空间,包括利萨如轨道、准光轨道、轴轨道及其不变流形,以及凌日轨道和非凌日轨道。基于经典的面内和面外频率共振机制,Lindstedt-Poincaré 方法只能分别求出 Lissajous 轨道和光环轨道的不变流形的解析解,而准光环轨道的不变流形的解析解则不尽人意。本文通过引入耦合系数η和分岔方程,利用耦合诱导的分岔机制和林斯特-普因卡雷方法,系统地建立了这些轨道的统一级数解。通过分析不同耦合形式得到的分岔方程,揭示了碰撞天平点附近各种轨道的分岔条件。当 η = 0 时,序列解描述的是非分岔轨道;而当 η ≠ 0 时,解描述的是分岔轨道,包括准晕轨道、轴轨道及其不变流形,以及新分岔的过境轨道和非过境轨道。这种统一的半分析框架使我们能够更全面地理解 CRTBP 碰撞天平点附近的复杂相空间结构。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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