show work! O Question 4 Planet Xhasa mass of 1.89 x 101 kg anditorbits 1.09 x...

Question

Question

show work!

Answer 1

Similar Homework Help Questions

Planet X has a mass of 4.86 x 102 kg and it orbits 1.09 x 108...

Planet X has a mass of 4.86 x 102 kg and it orbits 1.09 x 108 km from a star with a period of 225 days. What is the angular momentum of the planet around its star? Answer in units of kg m²/sec. Due to its large distance from its star, you can treat the planet as a point mass in its circular motion around the star. O 1.86 x 1040 O 1.61 x 1039 O 2.93 x 1039 O...
Question 4 1 pts Planet X has a mass of 5.97 x 1024 kg and it...

Question 4 1 pts Planet X has a mass of 5.97 x 1024 kg and it orbits 1.52 x 108 km from a star with a period of 412 days. What is the angular momentum of the planet around its star? Answer in units of kg m²/sec. Due to its large distance from its star, you can treat the planet as a point mass in its circular motion around the star.
O 1.8 Question 4 1 pts Planet X has a mass of 6.39 1023 kg and...

O 1.8 Question 4 1 pts Planet X has a mass of 6.39 1023 kg and it orbits 2.08 x 108 km from a star with a period of 687 days. What is the angular momentum of the planet around its star? Answer in units of kg m2/sec. Due to its large distance from its star, you can treat the planet as a point mass in its circular motion around the star. O 1.61 x 1039 O 2.93 x 1039...

Planet M has a mass if 4.86x10^24 kg and it orbits 1.09x10^8 km from a star...

Planet M has a mass if 4.86x10^24 kg and it orbits 1.09x10^8 km from a star with a period of 225 days. What is the angular momentum if the olant around its star? Answe in kg m^2/sec
Problem 3.13 A planet of mass 3 x 104 kg is at location <6 x 101,...

Problem 3.13 A planet of mass 3 x 104 kg is at location <6 x 101, s 101, 0 m. A star of mass 9 x 100 kg is at location <3 x 1011 8 x 10, 0> m. wil be useful to draw a diagram of the situation, including the relevant vectors (a) What is the relative position vector 7 pointing from the planet to the star? (b) What is the distance between the planet and the star? 1기...
Planet X has a mass of 5.93x1024 kg , and a radius of 8401 km. The...

Planet X has a mass of 5.93x1024 kg , and a radius of 8401 km. The planet rotates about its axis once every 8.04 hours. Determine the angular momentum of the planet about its rotation axis (assume a uniform sphere) .

A planet of mass 7 X 1024 kg is at location <4 x 10", -8 x...

A planet of mass 7 X 1024 kg is at location <4 x 10", -8 x 10'1,0>m. A star of mass 2 x 100 kg is at location <.4 x 10 ,8 x 10 ,0> m. It will be useful to draw a diagram of the situation, including the relevant vectors. *Part 1 Your answer is correct. (a) What is the relative position vector 7 pointing from the planet to the star? 7 -8E1116E11 > Answer 1: the tolerance is...
A dwarf planet with mass M = 2.43 x 1016 kg and radius R = 2360...

A dwarf planet with mass M = 2.43 x 1016 kg and radius R = 2360 km is crashed into by a large comet. The dwarf planet initially has a day with length 12 hours. The comet hits the planet at its equator and at an angle of 0 = 80° with the radius of the planet, as shown in the view of the planet looking above from the North Pole. The speed of the comet is V comet =...
Planet X of mass mx = 6.3 × 1024 kg orbits S in uniform circular motion...

Planet X of mass mx = 6.3 × 1024 kg orbits S in uniform circular motion at a distance rx and with a period Px = 1.5 years (=4.7304 × 107 s). The mass of the star S is MS = 2 × 1031 kg and its radius is RS = 4.2 × 108 m, as shown in the figure. 1) What is rx, the orbital radius of Planet X around the Sun? a) rx = 4.21 × 109 m...

4. Consider a planet in orbit about a star of mass M. Let the x-y plane...

4. Consider a planet in orbit about a star of mass M. Let the x-y plane correspond to the plane of the orbit, with the star at the origin. In the limit in which the stellar mass greatly exceeds the planetary mass, the planet's radial equation of motion is GM h2 p2 + 73 where h = rė is the planet's constant angular momentum per unit mass, and G is the universal gravitational constant. Here, x = r cos @...