2. describe at least 3 ways to reach edge cases in the simulation (the orbit becomes dashed and a warning…

2. describe at least 3 ways to reach edge cases in the simulation (the orbit becomes dashed and a warning message appears on screen). write the warning message and what you did to reach that orbit.\na. high velocity object escaped\nb. low velocity orbit decaying\nc. small distance collision alert\n3. in each of those situations how would you get back to a stable orbit?

2. describe at least 3 ways to reach edge cases in the simulation (the orbit becomes dashed and a warning message appears on screen). write the warning message and what you did to reach that orbit.\na. high velocity object escaped\nb. low velocity orbit decaying\nc. small distance collision alert\n3. in each of those situations how would you get back to a stable orbit?

Answer

Brief Explanations:

For the first part, high - velocity causes an object to escape, resulting in the "object escaped" warning. Low - velocity leads to orbit decay with the "orbit decaying" warning. Small distance between objects gives a "collision alert" warning. For the second part, to get back to a stable orbit from high - velocity, one could slow down the object; from low - velocity, increase the object's speed; and from a small - distance situation, adjust the object's trajectory to increase the distance between objects.

Answer:

  • High velocity: Warning message - "object escaped". Action - Increase the initial velocity of the object beyond the escape velocity of the central body in the simulation.
  • Low velocity: Warning message - "orbit decaying". Action - Set the initial velocity of the object too low for a stable orbit around the central body.
  • Small distance: Warning message - "collision alert". Action - Place the object too close to another object or the central body in the simulation.
  • High velocity: Decrease the velocity of the object to a value that allows it to be in a stable orbit around the central body.
  • Low velocity: Increase the velocity of the object to a value appropriate for a stable orbit.
  • Small distance: Adjust the position or trajectory of the object to increase the distance from other objects or the central body to avoid collision.