No. Kepler died before Newton was born.
Johannes Kepler is credited with forming the mathematics of elliptical orbits.
Newton's theories, primarily articulated in his laws of motion and universal gravitation, describe how objects interact through forces, emphasizing the mathematical relationships between mass, distance, and gravity. In contrast, Kepler's theories focus on the motion of planets, specifically their elliptical orbits around the sun, outlined in his three laws of planetary motion. While Kepler's work provided the observational framework for planetary motion, Newton's laws offered the underlying physical principles that explain why those motions occur. Essentially, Kepler described the "how" of planetary motion, while Newton explained the "why."
law of equal areas
Newton derived Keplars findings from Newton's Theory of Gravity. Thus, newton 'explained' the basis for Keplars findings and extended them.
There are numerous theories of planetary motion. Ptolemaeus (earth in the centre), Copernicus (the sun in the centre, planets orbit around it), Kepler (planet orbits are ellipses) all wrote such theories.
Kepler's Laws describe what happens. Newton's Laws describes what happens and why. The why is the theoretical explanation due to Gravity.
Kepler is famous for his laws of planetary motion. This played a major fundamental role in Newton's work on gravity.
Sir Isaac Newton described gravity and the three laws of motion in his work "Philosophiæ Naturalis Principia Mathematica" published in 1687. These laws are known as Newton's laws of motion and they form the foundation of classical mechanics.
Johannes Kepler is credited with forming the mathematics of elliptical orbits.
That was Isaac Newton. He was able to derive Kepler's laws of planetary motion from his own equations regarding gravity, showing that the same rules apply to the motion of objects on Earth and to the motion of celestial bodies.
The general laws about the planets' orbits were known before Newton - mainly, through the three Laws of Planetary Motion, by Kepler. Newton showed that the movement - as explained in Kepler's Laws - was a result of the laws of motion (especially Newton's Second Law), and of the force of gravitation.
Newton took into account the force of gravity, which he showed was responsible for keeping the planets in orbit around the sun. Kepler's laws described the motion of planets but did not provide an explanation for what caused this motion.
Kepler showed that three simple statements (Kepler's 'Laws') could explain all the planetary motions that Tycho had observed and recorded. Sir Isaac Newton ... after postulating the law of gravitation ... showed that the existence of gravity, in the form he wrote it, would naturally lead to Kepler's Laws.
Kepler proposed a set of 'laws' to describe the motions of the planets,based completely on observational measurements.When Newton offered his law of universal gravitation, he was able to showmathematically that IF his formulas for gravity were correct, then the planetsMUST move exactly according to the observational measurements, and accordingto Kepler's Laws.That agreement was a great boost for these theories of both Kepler and Newton.
Kepler's three "laws" of planetary motion constitute Kepler's explanation of the motions of the inner six planets of the solar system. He formulated them from years of sweating over the notebooks kept by another individual who spent his life watching the planets and keeping records of their motions. (Tycho Brahe). After Kepler's death, Isaac Newton developed his theory of gravity. Anybody who has enough geometry and calculus to give Gravity a good massage can show mathematically that IF gravity works the way Newton suggested it does, then the planets MUST move in the ways described by Kepler's Laws ... a nice confirmation of the work of both Newton and Kepler. These laws not only do a good job of describing how the planets move, but when we use Kepler's and Newton's formulas to figure out how to aim artificial satellites, Apollo capsules, and interplanetary probes to the outer solar system, those things always go where we want them to go ... more nice confirmation of the same theories. Oh yes. That's right. Both of them are "just theories".
Sir. Issac Newton and i believe 1677
Newton's theories, primarily articulated in his laws of motion and universal gravitation, describe how objects interact through forces, emphasizing the mathematical relationships between mass, distance, and gravity. In contrast, Kepler's theories focus on the motion of planets, specifically their elliptical orbits around the sun, outlined in his three laws of planetary motion. While Kepler's work provided the observational framework for planetary motion, Newton's laws offered the underlying physical principles that explain why those motions occur. Essentially, Kepler described the "how" of planetary motion, while Newton explained the "why."