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One method of detecting extrasolar planets involves looking for indirect evidence of a planet in the form of wobbling of its star about the star-planet system's center of mass. Assuming that the Solar System consisted mainly of the Sun and Jupiter, how much would the Sun wobble? That is, what back-and- forth distance would it move due to its rotation about the center of mass of the Sun-Jupiter system? How far from the center of the Sun is that center of mass?

Short Answer

Expert verified
Answer: The Sun wobbles approximately 7.784 * 10^11 meters back-and-forth due to Jupiter's presence in the solar system.

Step by step solution

01

Given information

Mass of the Sun (M鈧) = 1.989 * 10^30 kg Mass of Jupiter (M鈧) = 1.898 * 10^27 kg Distance between Sun and Jupiter (R) = 7.784 * 10^11 meters
02

Center of Mass Formula

The center of mass formula for a two-body system can be written as: Center of Mass (Rcm) = (M鈧丷鈧 + M鈧俁鈧)/(M鈧 + M鈧) where Rcm is the distance between the center of mass and the reference point, R鈧 and R鈧 are the distances of the two bodies from the reference point.
03

Reference Point and Distances

In this scenario, the reference point will be the center of the Sun: R鈧 = 0 (since the distance of Sun from itself is 0) R鈧 = R
04

Calculate the Center of Mass

Now we can plug the values into the equation: Rcm = (M鈧丷鈧 + M鈧俁鈧) / (M鈧 + M鈧) Rcm = (1.989 * 10^30 * 0 + 1.898 * 10^27 * 7.784 * 10^11) / (1.989 * 10^30 + 1.898 * 10^27) = 741330.64 meters So, the center of mass of the Sun-Jupiter system is 741,330.64 meters away from the center of the Sun.
05

Calculate the Back-and-Forth Distance of the Sun

Since we now have the distance between the Sun and the center of mass of the Sun-Jupiter system, we can calculate how much the Sun wobbles. We can do this by finding the difference between the center of the Sun and the center of mass: Wobble Distance = R - Rcm = 7.784 * 10^11 - 741330.64 = 7.784 * 10^11 meters (approximately) Due to Jupiter's presence, the Sun wobbles approximately 7.784 * 10^11 meters back-and-forth.

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