Generally, yes. But it is not a rule._DJ_british_? said:I've read that a planet's rotation around it's star is in the same direction has the rotation of the star on itself, is that true?
Yes. The star and planets all condensed from the same cloud of dust and gas, and it is this cloud's initial rotation that is preserved._DJ_british_? said:If so, why? Does it have something to do with the conservation of angular momentum?.
See above._DJ_british_? said:And another question (well, two :P) : why do stars rotate (the outer layer, I mean)(And if it does, the inners?) ?
Don't know of any that don't. Do you?_DJ_british_? said:And do all stars rotate? If not, why some do and some don't (four questions, I guess!)?
_DJ_british_? said:I've read that a planet's rotation around it's star is in the same direction has the rotation of the star on itself, is that true?
If so, why? Does it have something to do with the conservation of angular momentum?
And another question (well, two :P) : why do stars rotate (the outer layer, I mean)(And if it does, the inners?) ? And do all stars rotate? If not, why some do and some don't (four questions, I guess!)?
The rotation of a planet affects its climate by influencing the distribution of sunlight and heat across its surface. A faster rotation can lead to more extreme temperature variations between day and night, while a slower rotation can result in more moderate temperatures. Additionally, the tilt of a planet's axis can also impact its climate, as it determines the angle at which sunlight hits different parts of the planet.
The direction of a planet's rotation is determined by the direction of its initial spin during its formation. Planets are believed to have formed from the same spinning disk of gas and dust, but various factors such as collisions and gravitational interactions with other objects can cause a planet to rotate in the opposite direction.
A planet's sidereal day is the length of time it takes for the planet to complete one full rotation on its axis relative to the stars. A solar day, on the other hand, is the length of time it takes for the planet to rotate once and return to the same position relative to the sun. The difference between the two is caused by the planet's orbit around the sun and can vary depending on the planet's axial tilt and orbital eccentricity.
Yes, a planet's rotation can be affected by external forces such as the gravitational pull of other planets or objects. This can cause small changes in a planet's rotational speed or axis tilt over time. For example, Earth's rotation is gradually slowing down due to tidal forces from the moon.
The rotation of a planet is one of the key factors that determines the strength and structure of its magnetic field. A fast rotation can generate a stronger magnetic field, while a slow rotation can result in a weaker field. The tilt of a planet's axis can also impact the shape and orientation of its magnetic field, as seen in the case of Uranus where its axis is tilted at a 98 degree angle compared to its orbit around the sun.