Examples of using Planetary motion in English and their translations into Vietnamese
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Johannes Kepler confirms his third law of planetary motion.
It contained all three laws of planetary motion and attempted to explain heavenly motions through physical causes.
Johannes Kepler is the person that figured out the laws of planetary motion.
Any retrograde is a slowing of the planetary motion relative to its average speed.
Johannes Kepler(1571-1630) developed his three laws of planetary motion.
As for planetary motion, we can get a good-enough picture of a planet's trajectory by recognising that the massiveness of our Sun allows us to ignore the influence of other heavenly bodies.
In 1609 Johannes Kepler published his laws of planetary motion based upon the Copernican theory.
Without such hypothesis,it is impossible to apply the theory to the study of planetary motion.
He invented the concept of gravitation, Kepler's laws of planetary motion and built the first reflecting telescope.
After Kepler only Newton, andafter Newton only Albert Einstein fundamentally changed our views on planetary motion.
The original Laplacian was developed by the18th-century scholar Pierre-Simon Laplace to understand planetary motion and is constructed out of the second derivatives of a function.
Kepler's belief in the mathematical precision of theuniverse led to his discovery of three fundamental laws of planetary motion;
Even though he acknowledged the Indian movement, he disagrees on some thesis,such as their theory of planetary motion, the distance separating the earth from the planets, and the dimension of earth.
In early 1684, in a conversation with fellow Royal Society members Christopher Wren and Edmond Halley,Hooke made his case on the proof for planetary motion.
Kepler would develop his own theories regarding astrology and planetary motion that would, in turn, lay the groundwork for the modern forbears of the science, including Isaac Newton.
It was Sir Isaac Newton who was able tobring all of these discoveries together into actually explaining the planetary motions, however.
Hooke's idea was soon incorporated into Newton's work on planetary motion, and from his notes it appears he had quickly drawn his own conclusions by 1680, though he kept his discoveries to himself.
When the question was abstracted to matters of force,mass and gravity in Newtonian physics, planetary motion became much easier to predict and understand.
To simplify this task, by late 1602 Kepler reformulated the proportion in terms of geometry: planets sweep out equal areas in equal times-Kepler's second law of planetary motion.
Finally, in 1609,German mathematician Johannes Kepler published his theories of planetary motion, which established that bodies in our solar system move in orbits shaped like ovals rather than circles.
Finding that an elliptical orbit fit the Mars data, he immediately concluded that all planets move in ellipses, with the sun at one focus-Kepler's first law of planetary motion.
Students can use this as atool to learn about the complex concepts such as planetary motion, physics, and unlike computer screens or textbooks, this is a real, tangible experience that you can touch and feel, and it's very powerful.
The Society of Jesus introduced, according to Thomas Woods,"a substantial body of scientific knowledge and a vast array of mental tools for understanding the physical universe,including the Euclidean geometry that made planetary motion comprehensible.".
Though it explicitly extended the first two laws of planetary motion(applied to Mars in Astronomia nova) to all the planets as well as the Moon and the Medicean satellites of Jupiter,[b] it did not explain how elliptical orbits could be derived from observational data.[66].
Precision measurements by Tycho Brahe, and the work of Johannes Kepler, Galileo, and Newton, finally established not only that Copernicus was correct,but led to a theory of planetary motion in the form of Newton's laws of motion and gravitation.
In a 1679 letter of general correspondence to Royal Society members for contributions,Hooke wrote to Newton and brought up the question of planetary motion, suggesting that a formula involving the inverse squares might explain the attraction between planets and the shape of their orbits.
Verifying this relationship throughout the orbital cycle, however, required very extensive calculation; to simplify this task, by late 1602 Kepler reformulated the proportion in terms of geometry: planets sweep out equal areas in equal times-Kepler's second law of planetary motion.
During the 17th century, Io and the other Galilean satellites served a variety of purposes, such as helping mariners determine their longitude,validating Kepler's Third Law of planetary motion, and determining the time required for light to travel between Jupiter and Earth.
