希尔达斯和木星特洛伊中的利多夫-科扎伊机制

T. A. Vinogradova
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摘要

本文在希尔达群和木星三剑客区域研究了利多夫-科扎伊机制。这些族群的小行星以与木星3:2和1:1的轨道共振运动。研究采用了实际小行星运动方程的数值积分方法。采用的是简化动力学模型。只考虑了在固定椭圆轨道上运动的木星的扰动。在每个打印步骤中都排除了循环元素的经典世俗扰动,得出的轨道倾角和偏心率与近日点参数(\ω \)的关系图。结果发现,偏心率最大值和倾角最小值(\(\omega = 90^{circ }\), \(270^{circ }\) 的通常位置都在这些共振区内移动。对于希尔达斯,偏心率的最大值是通过近日点参数值(\omega =0^{\circ }\ )、(180^{\circ }\ )实现的。对于L4特洛伊木马来说,用\(\omega = 30^{\circ }\),\(210^{\circ }\) 可以达到最大偏心率;对于L5特洛伊木马来说,用\(\omega = 150^{\circ }\),\(330^{\circ }\) 可以达到最大偏心率。
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Lidov–Kozai mechanism in Hildas and Jupiter Trojans

In this paper, the Lidov–Kozai mechanism was studied in the region of the Hilda group and Jupiter Trojans. Asteroids of these populations move in 3:2 and 1:1 orbital resonances with Jupiter. The study was carried out using numerical integration of real asteroids’ equations of motion. A simplified dynamical model was adopted. Perturbations from only Jupiter moving in a fixed elliptical orbit were taken into account. Classical secular perturbations were excluded from osculating elements at every print step, and derived orbital inclinations and eccentricities were plotted versus a perihelion argument \(\omega \). As a result, it was found that usual positions of a maximum of the eccentricity and, accordingly, a minimum of the inclination (\(\omega = 90^{\circ }\), \(270^{\circ }\)) are shifted in these resonant regions. For Hildas, the maximum of the eccentricity is achieved with perihelion argument values \(\omega =0^{\circ }\), \(180^{\circ }\). For L4 Trojans, it is achieved with \(\omega = 30^{\circ }\), \(210^{\circ }\), and for L5 Trojans—with \(\omega = 150^{\circ }\), \(330^{\circ }\).

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