answersLogoWhite

0

What else can I help you with?

Continue Learning about Natural Sciences

What kind of trajectory was used by Galileo spacecraft?

The Galileo spacecraft used a gravity-assist trajectory to reach Jupiter. This involved slingshot maneuvers around Venus and Earth to gain the necessary velocity to reach the outer solar system.


How did gravity assist the voyagers flight to Neptune?

Voyager 2 took 12 years to get to Neptune and it got there via gravity assist also known as the slingshot effect. It went past the orbit of mars onward to Jupiter, using its massive gravity to deflect the space craft towards Saturn. It used Saturn's gravitational pull to deflect itself towards Uranus and did the same thing with Uranus's gravity. Eventually it arrived at Neptune's orbit. It would probably take longer nowadays to do the same thing, because rockets are not built as efficiently as they were back then to get to where they wanted to go.


How did Gravity Assist help the voyager space probe navigate the solar system?

By the gravity pull


How do you get to mercury?

To get to Mercury, you would need a spacecraft launched from Earth. Due to its proximity to the Sun and the high speeds required to reach it, spacecraft usually perform multiple gravity-assist maneuvers around other planets before arriving at Mercury. The journey can take several months to a few years depending on the trajectory chosen.


How would you get to Saturn?

By a rocket. Although on the way you may not live because some people have died by going out of space, because there is no gravity you just float around! I hope my answer helps you! :)

Related Questions

How did scientists use the force of gravity on the Cassini spacecraft mission?

Scientists used the force of gravity from celestial bodies to assist the Cassini spacecraft in navigating through the Saturn system. By performing gravity assists with the planet's moons, Cassini was able to conserve fuel and make adjustments in its trajectory to reach its intended destinations within the Saturn system, allowing for longer mission duration and multiple close flybys of Saturn's moons.


How gravity assist works?

Gravity assists use the gravitational pull of a celestial body, like a planet or moon, to alter the speed and direction of a spacecraft traveling through space. By flying close to these bodies and entering their gravitational fields, a spacecraft can gain or lose velocity without expending fuel, allowing it to reach destinations more efficiently and achieve greater speeds. This technique has been used in many space missions, such as NASA's Voyager and Cassini spacecraft.


Why can astronauts not use parachutes to help slow down their spacecraft as it approaches the moon how do they slow down their spacecraft?

A parachute would not work in the vacuum of space as there is no air for it to catch and create drag. Instead, spacecraft approaching the moon slow down through a combination of a retrograde rocket burn and gravity assist maneuvers to enter lunar orbit. Mission planners carefully calculate the spacecraft's trajectory and use precise engine firings to control its speed and trajectory.


What kind of trajectory was used by Galileo spacecraft?

The Galileo spacecraft used a gravity-assist trajectory to reach Jupiter. This involved slingshot maneuvers around Venus and Earth to gain the necessary velocity to reach the outer solar system.


How does the slingshot effect or gravity work to assist a change in orbit of a spacecraft?

Gravity AssistIt's called Gravity Assist. Overcoming gravity is all about velocity. Escaping Earth's gravity requires approximately 25,000 mph. Escaping the Solar System needs more than 45,000mph. We dont have a large enough rocket to achieve that speed so spacecraft can use a planets gravity to increase its velocity and then the planet can "slingshot" it onto a new trjectory toward the next target. The gravity of a large object can "pull" something to a higher velocity and then, rather than crash into the object, the craft can just miss the planet or moon and, for a moment, go into orbit. The centripital force of the orbit will increase the craft's velocity and "shoot" it off on a new trajectory. ------------Nope, that's wrong. An orbit is (by definition) symmetrical. There is no change of energy in an orbit (that is, no change to the sum of kinetic energy and potential energy). Any kinetic energy gained by a spacecraft on approach to a planet, by trading gravitational potential, must be lost on leaving it, as the kinetic energy is converted back into potential.You can only make sense of a gravity assist by also considering the planet's orbit around the sun. By arranging a suitable slingshot configuration you can steal the orbital energy of the planet around the sun and give it to the spacecraft. The planet ends up in a lower (less energetic) orbit, while the spacecraft ends up in a higher orbit relative to the sun. It has nothing to do with the centripetal force of the spacecraft's orbit or hyperbolic trajectory around the *planet*.


How does a slingshot effect work?

A slingshot effect, also known as a gravity assist, is a technique used by spacecraft to gain speed and change direction by exploiting a planet's gravitational pull. The spacecraft flies close to a planet and uses its gravity to accelerate, altering its trajectory without using additional fuel. This method is commonly used to save fuel and time in space missions.


What is Gravitational SlingShot Effect?

The gravitational slingshot effect, also known as a gravity assist, is a technique used in spaceflight to boost the speed of a spacecraft by utilizing the gravitational pull of a planet or other celestial body. This method allows spacecraft to conserve fuel and increase their velocity, enabling them to reach their destination more efficiently.


How did gravity assist the voyagers flight to Neptune?

Voyager 2 took 12 years to get to Neptune and it got there via gravity assist also known as the slingshot effect. It went past the orbit of mars onward to Jupiter, using its massive gravity to deflect the space craft towards Saturn. It used Saturn's gravitational pull to deflect itself towards Uranus and did the same thing with Uranus's gravity. Eventually it arrived at Neptune's orbit. It would probably take longer nowadays to do the same thing, because rockets are not built as efficiently as they were back then to get to where they wanted to go.


What is the slingshot and why does NASA use it?

"Sling Shot" is a NASA slang term for Gravity Assist maneuvers to help propel satellites further into space and at more speed. This is due to the fact that deep space probes have limited, finite amounts of propellant aboard for maneuvering operations once they reach their destinations, and they don't want to use it all up just getting there.It's used to get a spacecraft to a particular point in space at a particular time. Space probes are launched at the best windows of opportunity to enable them to get to their target locations at a particular time, when a planet, comet, moon, etc., is at its closest orbit or approach, or the best position for a spacecraft rendezvous. Using gravity assist enables NASA to get satellites to their destinations within that window of opportunity; otherwise, in some cases, it could be months, years, or decades before such a window presents itself again.Essentially, a spacecraft is ordered to head toward a planetary body or other mass with significant gravity. As the spacecraft encounters the gravity pull effects, it increases in speed. At a calculated moment, the spacecraft is ordered into a trajectory around the planetary body that will propel it at increased speed toward its next destination in space,and at a significant amount of velocity that will enable it to break free of gravitation pull of the body it used for an assist. That could either be its final destination, or a rendezvous with another planet for another gravity assist.The long acceleration and swing around a planet and subsequent increase in speed coming out of the assist maneuver is how it earned the name "Sling Shot".


How did Gravity Assist help the voyager space probe navigate the solar system?

By the gravity pull


How do you get to mercury?

To get to Mercury, you would need a spacecraft launched from Earth. Due to its proximity to the Sun and the high speeds required to reach it, spacecraft usually perform multiple gravity-assist maneuvers around other planets before arriving at Mercury. The journey can take several months to a few years depending on the trajectory chosen.


Does gravity help peristalsis?

Gravity does not directly help peristalsis, which is the involuntary contraction and relaxation of muscles that helps move food through the digestive tract. Peristalsis is controlled by the enteric nervous system in the gastrointestinal tract. Gravity can slightly assist in moving food down the esophagus when swallowing, but peristalsis is the main force that propels food through the digestive system.