Answered: Relative to a nonrotating Cartesian… | bartleby

Related questions

Question

100%

2.14 Relative to a nonrotating Cartesian coordinate frame with the origin at the center O of the earth, a
spacecraft in a rectilinear trajectory has the velocity v = 21+3ĵ+4k (km/s) when its distance
from 0 is 10,000 km. Find the position vector r when the spacecraft comes to rest.
{Ans.: r= = 5837.41 +8756.1ĵ +11,675k (km) }

Expert Solution

Trending now

This is a popular solution!

Step by step

Solved in 3 steps with 13 images

SEE SOLUTION Check out a sample Q&A here

Blurred answer

Similar questions

A satellite is in circular polar orbit around Earth at an altitude of 450 km – meaning it passes directly overhead of the North and South Poles. What is the magnitude and direction of the displacement vector when it is directly over the North Pole to when it is at 40° latitude? Earth’s radius is 6,370 km.
A spaceship is traveling through deep space towards a space station and needs to make a course correction to go around a nebula. The captain orders the ship to travel 2.7 x 106 kilometers before turning 70° and traveling 2.3 x 106 kilometers before assuming the path towards the space station. If the captain had not ordered a course correction, what would have been the magnitude (in kilometers) and direction (in degrees counterclockwise from the +x-axis) of the path of the spaceship if it had instead traveled directly through the nebula? L magnitude direction spaceship km A nebula space station B ww counterclockwise from the +x-axis
Astronomical observations of our Milky Way galaxy indicate that it has a mass of about 8 ✕ 1011 solar masses. A star orbiting near the galaxy's periphery is 6.0 ✕ 104 light years from its center. (a) What should the orbital period (in y) of that star be? y (b) If its period is 6.9 ✕ 107 y instead, what is the mass (in solar masses) of the galaxy? Such calculations are used to imply the existence of "dark matter" in the universe and have indicated, for example, the existence of very massive black holes at the centers of some galaxies. solar masses
Please asap
A spaceship travels through deep space to a space station and needs to make a heading correction to get around a nebula. The captain orders the ship to travel 3.1 x 106 kilometers before turning 70 ° and to travel 2.5 x 106 kilometers in that direction. If the captain had not ordered a heading correction, what would have been the magnitude (in kilometers) and the direction (in degrees counterclockwise from the + x-axis) (Counter clockwise: counterclockwise) of the trajectory of the spaceship if it had traveled through the nebula?
A projectile is fired straight upward from the Earth's surface with an initial speed of 33.3m/sec. What is it's speed after 2.8secs?
A spaceship is traveling through deep space towards a space station and needs to make a course correction to go around a nebula. The captain orders the ship to travel 2.3 x 106 kilometers before turning 70⁰ and traveling 1.5 x 106 kilometers before assuming the path towards the space station. If the captain had not ordered a course correction, what would have been the magnitude (in kilometers) and direction (in degrees counterclockwise from the +x-axis) of the path of the spaceship if it had traveled through the nebula? L. magnitude direction spaceship A nebula space station B km ° counterclockwise from the +x-axis
A spacecraft is in a circular orbit around the planet kerbin at an altitude of 100 km. the radium of kerbin is 600km and the planet has a mass of M = 5.29*10^22kg. The universal gravitational constant is G = 6.67*10^-11 Write parametric equations for the position, velocity and acceleration vectors of the spacecraft in its orbital plane.
You are standing on the ground at the origin of a coordinate system. An airplane flies over you with constant velocity parallel to the x axis and at a constant height of 8.20 x 103 m. At t = 0, the airplane is directly above you so that the vector leading from you to it is P. = 8.20 x 10³j m. At t = 30.0 s the position vector leading from you to the airplane is P20 = (9.40 x 10°i + 8.20 x 10 j) m as suggested in the figure below. Determine the magnitude and orientation of the airplane's position vector at t = 65.0 s. magnitude m direction o above the horizontal P. P30
I know the answer. But it comes out as cos^-1(12/25)dms 1.07, how does the angle 61 degrees come out?