All plots and details of the results for r(0) = 100 109 [m]
Analysis and plots of the motion for an initial distance of r_{(0)}=100\ {10}^9\ \ \left[m\right], and the following initial conditions and parameters:
G=6.67408\ast{10}^{-11}\ \frac{Nm^2}{{\rm Kg}^2} | (the universal gravitational constant) |
M=2\ {10}^{30}\ Kg | (the mass of the Sun) |
m=5.9\ {10}^{24}\ Kg | (the mass of the Earth) |
{\dot{r}}_{(0)}=0\ [m/s] |
(linear velocity of the center of mass m at t=0) |
\emptyset_{(0)}=0\ [rad] | (azimuthal position of the center of mass m at t=0) |
{\dot{\emptyset}}_{(t)}=\Omega |
(is the relative angular velocity between the spin of the center of mass M and the translation of the center of mass m) |
Since there is a singularity for \theta=0, the “zero” initial condition of the polar angle was taken close to zero as \theta=\frac{\pi}{{10}^3}\ [rad]. |
The polar angle of equilibrium (\theta_f) is found for several values of the initial conditions of \theta_{(0)}, \omega_{(0)}, and \Omega. The three vertical values of \theta_f on each table cell, from top to bottom, are the results for each of the three values of from left to right. For example:
Obs.: the table is very long, and it is split over into several images (misaligned gaps between images are easy to note).
Go to Table 2 to see the summary of the results obtained here.