Which orbital shape did most scientists in the early 1600s think the planets of our solar system have?
I got you all.
1. Which is the best description of Earth’s orbit?
almost circular
2. Which statement describes Kepler’s third law of orbital motion?
The square of orbital period is proportional to the cube of the semi-major axis.
3. Which planet’s orbit was Kepler first studying when he began to develop his laws of orbital motion?
Mars
4. Which orbital shape did most scientists in the early 1600s think the planets of our solar system have?
circular
5. Which of these describes Kepler’s third law of orbital motion?
T^2 ∝ a^3
Trust me its 100%
does anyone have the answer for the whole quiz
100% thank you sasuke
Thank you Sasuke
@Naruto
Seeing as to you asked for the answer to this question 18 hours ago, I believe you are one of my classmates. Unless, you are in something different then Falcon View Connections Academy. I know you do schoolwork for connexus though.
@Sasuke It's funny how I had a dream last night related to Naruto, and now Sasuke is helping me with my homework 😝
In the early 1600s, most scientists believed that the planets in our solar system moved in circular orbits. This prevailing belief was based on the teachings of the ancient Greek philosopher, Aristotle, who proposed that perfect, uniform circular motion was the ideal form of motion in the universe.
To understand why scientists of that time favored circular orbits, you need to look back at the historical context. Aristotle's ideas were widely accepted during this period, and his views on motion and the nature of celestial bodies heavily influenced scientific thought.
Additionally, the concept of circular orbits was attractive because it seemed to reflect the notion of perfect symmetry and order in the universe. The circular shape aligned with the idea of celestial bodies being connected to divine forces and representing the harmonious workings of the cosmos.
However, it's essential to note that not all scientists in the early 1600s adhered to the belief of circular orbits. Some dissenting scientists, such as Johannes Kepler, were already challenging the notion of circular motion and postulating alternative orbital shapes based on observations and mathematical calculations.
It was only later, with the groundbreaking work of Kepler and his laws of planetary motion, that the prevailing belief in circular orbits gave way to the realization that the planets move in elliptical orbits. Kepler's laws provided a more accurate and mathematically sound description of planetary motion, eventually replacing the ancient Greek model and revolutionizing our understanding of the solar system.