A star of mass 6 x 1030 kg is located at < 8 x 10¹2, 3 x 101¹2, 0> m. A planet of mass 5 x 1024 kg is located at < 6 × 10¹2, 6 x 10¹2, 0 > m and is moving with a velocity of < 0.6 × 104, 1.1 × 104, 0 > m/s.(a)V-₁ 17.08i - 25.6jDuring a time interval of 1×106 seconds, what is the change in the planet's velocity?m/s(b) During this time interval of 1×106 seconds, what is the change in the planet's position?7f-7₁ =Xm

Name: A star of mass 6 x 1030 kg is located at m.
Uploaded: 2024-03-20T06:57:37.000Z
Channel: Bartleby
Description: A star of mass 6 x 1030 kg is located at m. A planet of mass 5 x 1024 kg is located at m and is moving with a velocity of m/s.(a)V-₁ 17.08i - 25.6jDuring a time interval

Part-(a): Newton's law of universal gravitation says that any particle in the universe attracts any…

Science

Physics

A star of mass 6 x 1030 kg is located at < 8 x 1012, 3 x 101¹2, 0> m. A planet of mass 5 x 1024 kg is located at < 6 x 1012, 6 x 1012, 0> m and is moving with a velocity of <0.6 x 104, 1.1 x 104, 0 m/s. (a) During a time interval of 1×106 seconds, what is the change in the planet's velocity? VF-17.08-25.6j m/s (b) During this time interval of 1×106 seconds, what is the change in the planet's position? 7₁-7₁= X m

A star of mass 6 x 1030 kg is located at < 8 x 1012, 3 x 101¹2, 0> m. A planet of mass 5 x 1024 kg is located at < 6 x 1012, 6 x 1012, 0> m and is moving with a velocity of <0.6 x 104, 1.1 x 104, 0 m/s. (a) During a time interval of 1×106 seconds, what is the change in the planet's velocity? VF-17.08-25.6j m/s (b) During this time interval of 1×106 seconds, what is the change in the planet's position? 7₁-7₁= X m

College Physics

10th Edition

ISBN:9781285737027

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter6: Momentum And Collisions

Section: Chapter Questions

Problem 6WUE: An astronaut, of total mass 85.0 kg including her suit, stands on a spherical satellite of mass 375...

See similar textbooks

Similar questions

Show that the velocity of a star orbiting its galaxy in a circular oibit is inversely proportional to the square root of its orbital radius, assuming the mass of the stars inside its orbit acts like a single mass at the center of the galaxy. You may use an equation from a previous chapter to support your conclusion, but you must justify its use and define all terms used.
An astronaut, of total mass 85.0 kg including her suit, stands on a spherical satellite of mass 375 kg, both at rest relative a nearby space station. She jumps at a speed of 2.56 m/s directly away from the satellite, as measured by an observer in the station. At what speed does that observer measure the satellite traveling in the opposite direction? (See Section 6.2.)
Since 1995, hundreds of extrasolar planets have been discovered. There is the exciting possibility that there is life on one or more of these planets. To support life similar to that on the Earth, the planet must have liquid water. For an Earth-like planet orbiting a star like the Sun, this requirement means that the planet must be within a habitable zone of 0.9 AU to 1.4 AU from the star. The semimajor axis of an extrasolar planet is inferred from its period. What range in periods corresponds to the habitable zone for an Earth-like Planet orbiting a Sun-like star?
Quasars are thought to be the nuclei of active galaxies in the early stages of their formation. A typical quasar radiates energy at the rate of 1041 W. At what rate is the mass of this quasar being reduced to supply this energy? Express your answer in solar mass units per year, where one solar mass unit (1 smu = 2.0*10^30 kg) is the mass of our Sun.
Two electrons are brought close together, to a distance of 75 pm apart. They are then both released from rest, accelerating and travelling away from one another. When the two particles are very far apart, how fast will they be going, in m/s?
Two electrons are brought close together, to a distance of 83 pm apart. They are then both released from rest, accelerating and travelling away from one another. When the two particles are very far apart, how fast will they be going, in m/s? You Ancu
Two 0.60-kgkg basketballs, each with a radius of 19 cmcm , are just touching a) How much energy is required to change the separation between the centers of the basketballs to 1.0 mm ? (Ignore any other gravitational interactions.) b) How much energy is required to change the separation between the centers of the basketballs to 13 mm ? (Ignore any other gravitational interactions.)
6)The courdinate of a dust particle in centimeters is given by the eavation X166 t- 3 wherethe time tis in seconds.the dust parricieis momentanily at rest at what time: B 35 0/25 D55 B.
this is a dynamics question. About 9 light years separate Earth from the closest star system. There is a rocket that we are sending. Let the speed of the exhaust be 1/64 the speed of light. Make the beginning fuel mass twice as large as the load. How how long will it take to arrive the star system if it takes 200 hours to burn off the whole rocket's fuel and the fuel tank is not evacuated from the rocket?
3) The new Earth-Pluto SuperShuttle boasts that it can take you between the two planets, which are 5.0 hours apart in 2.5 hours (according to your watch). What time interval is measured by people in the Earth-Pluto frame? What is the shuttle's speed?
About 9 light years separate Earth from the closest star system. There is a rocket that we are sending. Let the speed of the exhaust be 1/64 the speed of light. Make the beginning fuel mass twice as large as the load. How how long will it take to arrive the star system if it takes 200 hours to burn off the whole rocket's fuel and the fuel tank is not evacuated from the rocket?
(a) An alpha-particle (m = 6.64 x 10-27 kg, q=3.2 x 10-¹9 C) moving with a velocity v = (2.0i - 4.0k) x 106m/s enters a region where E = (5.0î - 2.0ĵ) × 10¹V/m and B* = (1.0î + 4.0k) × 10-²T. What is the initial force on it? (b) An electron moving with a velocity v = (4.0 + 3.0f + 2.0k) x 106m/s enters a region where there is a uniform electric field and a uniform magnetic field. The magnetic field is given by B* = (1.0î - 2.0ĵ+ 4.0k) × 10-²T. If the electron travels through a region without being deflected, what is the electric field?