Yes, its all to do with Kepler's third law of planetary motion, which describes the relationship between the orbital period of the plant and the distance of that planet from the sun.
Kepler found that the square of the period, P, is proportional to the cube of the semi-major axis, a (P2 = ka3). k is a constant relating to the mass of the objects.
The planets revolve attracted by the gravitational force of primarily the sun and to a lesser degree the gravitational attraction of other planets. The reason for the orbit is thought to relate to the rotation of the primeval gas could which gave berth to the sun and the planets.
NO why would you even care
because it's a planet like all but it is the biggest
The distance of a planet from the sun does impact the surface of a planet. Planets closer to the sun, like Mercury and Venus, tend to have hotter surfaces, while planets further away, like Mars and the outer planets, have colder surfaces. This difference in temperature can influence the types of surface features found on each planet.
A planet's period of revolution is the time it takes to complete one full orbit around its star, which directly corresponds to the length of its year. For example, Earth takes about 365.25 days to orbit the Sun, defining one Earth year. This duration varies for other planets based on their distance from the Sun and their orbital speed; for instance, Mercury has a shorter year due to its closer proximity and faster orbit. Thus, a planet's year is essentially a reflection of its orbital dynamics.
The planets revolve attracted by the gravitational force of primarily the sun and to a lesser degree the gravitational attraction of other planets. The reason for the orbit is thought to relate to the rotation of the primeval gas could which gave berth to the sun and the planets.
Yes, its all to do with Kepler's third law of planetary motion, which describes the relationship between the orbital period of the plant and the distance of that planet from the sun. Kepler found that the square of the period, P, is proportional to the cube of the semi-major axis, a (P2 = ka3). The planets orbit the sun in an ellispse, the semi major axis is the `longest radius` within this ellipse. Kepler found that a constant `k` was needed in the equation - this was later found to relate to the mass of the objects. The planets mass is usually a lot less than the star its orbiting, so can often be dropped from the equation.
they both relate to distance.
It does not.
distance over time equals the speed/velocity.
In general, they don't.
They both can show distance
i wan the answer
i wan the answer
uranus is bigger
globe ++big ++ surfacs
NO why would you even care