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What factor did Newton take into account that Kepler missed in his laws of planetary motion?
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∙ 11y ago
orbital period
Wiki User
∙ 11y ago
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What is the main difference between Kepler's system and the Copernicus system?
Both systems have the Sun at the centre, but Copernicus stuck to the ancient model of circles and epicycles to explain the planets' orbits. Kepler on the other hand used new measurements by Tycho Brahe to suggest, after a lot of detailed calculations, that the planets move in elliptical orbits. The difference between an ellipse and a circular orbit with an epicycle is extremely small in the case of planetary orbits which have a low eccentricity factor. It was not until Tycho came along that measurements of sufficient accuracy were available for Kepler to make his discovery. Later the elliptical orbits were explained theoretically, after the discovery of the law of gravity and the laws of motion. This eventually led to Kepler's theory being generally accepted as right, which it still is.
One factor that could account for the rise in the water table is what?
An increase in precipitation.
What two variables does the wind chill factor take into account?
temperature and humidity
One factor could account for a drop in the water table is?
less rain and snow
Does neptune orbits the sun much slower than earth?
Yes, it is at a distance of 30 astronomical units from the Sun, so 30 times further than the Earth, which means its speed in orbit is down by a factor of sqrt(30), from Kepler's third law. So it goes at about 18% of the Earth's speed.
Who is thomas Kepler and what did he have to do with physics?
How did Johannes Kepler impact astronomy in modern day life? Are Johannes Kepler's laws still in effect today? No. By the early 19th Century, Kepler's Laws were deemed to be outmoded, and had frankly become somewhat moldy. By popular demand, especially from the younger folks, the Laws were repealed in 1842, and they no longer hold any force today.
How did Johannes Kepler contribute to the modern understanding of the solar system?
Our model of how the Solar System operates was discovered by Kepler with his three laws of planetary motion, published in 1609. He took an entirely new approach to planets' orbits after new and accurate observations of the planets' positions had been carried out by Tycho Brahe with the latest equipment. After a lot of detailed geometric work on the orbit of Mars Kepler found that an elliptical orbit fitted the way Mars moves, more closely than anything else. From that he deduced the famous three laws. However it was not until the time of Isaac newton that they started to understand why the planets move as they do, after the force of gravity was discovered. Newton's major discovery was that when the planets move under the inverse-square law of gravity, they must follow Kepler's three laws. The circles and epicycles of Copernicus's system represent the planets' orbits with good accuracy provided the eccentricity factor is small. This theory was replaced by that of Kepler. Kepler's decision to study Mars, which has an orbit with 9% eccentricity (higher than the other major planets) was a good choice because it shows up the difference. Even with this eccentricity the the minor axis of the orbit is less than 0.5% shorter than the major axis.
How did the work of Johannes Kepler contribute to the modern understanding the solar system?
Our model of how the Solar System operates was discovered by Kepler with his three laws of planetary motion, published in 1609. He took an entirely new approach to planets' orbits after new and accurate observations of the planets' positions had been carried out by Tycho Brahe with the latest equipment. After a lot of detailed geometric work on the orbit of Mars Kepler found that an elliptical orbit fitted the way Mars moves, more closely than anything else. From that he deduced the famous three laws. However it was not until the time of Isaac newton that they started to understand why the planets move as they do, after the force of gravity was discovered. Newton's major discovery was that when the planets move under the inverse-square law of gravity, they must follow Kepler's three laws. The circles and epicycles of Copernicus's system represent the planets' orbits with good accuracy provided the eccentricity factor is small. This theory was replaced by that of Kepler. Kepler's decision to study Mars, which has an orbit with 9% eccentricity (higher than the other major planets) was a good choice because it shows up the difference. Even with this eccentricity the the minor axis of the orbit is less than 0.5% shorter than the major axis.
What is the main difference Kepler system and the Copernicus system?
Both systems have the Sun at the centre, but Copernicus stuck to the ancient model of circles and epicycles to explain the planets' orbits. Kepler on the other hand used new measurements by Tycho Brahe to suggest, after a lot of detailed calculations, that the planets move in elliptical orbits. The difference between an ellipse and a circular orbit with an epicycle is extremely small in the case of planetary orbits which have a low eccentricity factor. It was not until Tycho came along that measurements of sufficient accuracy were available for Kepler to make his discovery. Later the elliptical orbits were explained theoretically, after the discovery of the law of gravity and the laws of motion. This eventually led to Kepler's theory being generally accepted as right, which it still is.
What is the meaning of da newton?
The Prefix 'da' is a multiplication factor. It stands for deca and In this case is a multiplication factor of 10.
What is the main difference between Kepler's system and the Copernicus system?
Both systems have the Sun at the centre, but Copernicus stuck to the ancient model of circles and epicycles to explain the planets' orbits. Kepler on the other hand used new measurements by Tycho Brahe to suggest, after a lot of detailed calculations, that the planets move in elliptical orbits. The difference between an ellipse and a circular orbit with an epicycle is extremely small in the case of planetary orbits which have a low eccentricity factor. It was not until Tycho came along that measurements of sufficient accuracy were available for Kepler to make his discovery. Later the elliptical orbits were explained theoretically, after the discovery of the law of gravity and the laws of motion. This eventually led to Kepler's theory being generally accepted as right, which it still is.
What is the main difference between Kepler's system and Copernicus' system?
Both systems have the Sun at the centre, but Copernicus stuck to the ancient model of circles and epicycles to explain the planets' orbits. Kepler on the other hand used new measurements by Tycho Brahe to suggest, after a lot of detailed calculations, that the planets move in elliptical orbits. The difference between an ellipse and a circular orbit with an epicycle is extremely small in the case of planetary orbits which have a low eccentricity factor. It was not until Tycho came along that measurements of sufficient accuracy were available for Kepler to make his discovery. Later the elliptical orbits were explained theoretically, after the discovery of the law of gravity and the laws of motion. This eventually led to Kepler's theory being generally accepted as right, which it still is.
Is an account receivable still enforceable if it is sold to a factor?
Yes. All account receivables are enforceable even if sold to a factor. All a factor does is decrease the liability that is due.
What do you conclude if a planet has few impact craters of any size?
Atmospheric density would be a factor affecting the number of impacts on a planetary body.
A sentence for inertia?
newton invented the idea of Inertia. inertia can be great factor on physical laws.
What has the author Joe Newton Harris written?
Joe Newton Harris has written: 'Complexity as a factor of quality and cost in large scale software development' -- subject(s): Management
How does gravity function as a pull or push?
A pull. Gravity is always attractive, so in the long run, gravity is the deciding factor in the motions of planetary bodies
