Same as it's orbital period, about 27.32 days.
Rotation and Revolution.
Due to Earth's rotation.
The length of Saturn's rotation on its axis is about ten and a half hours.
the length of the moon's rotation is 27.3 days (about 1 month)
The length of a planet's day is determined by the speed of it's rotation on it's axis. The faster the rotation, the shorter the day. The slower the rotation, the longer the day. This is affected by many factors such as any moons the planet may have (orbital speed, rotation speed or tide lock, distance and direction of travel of the moons all should be considered), past collisions with other large bodies (planetoids and other planets and their moons), and how the stellar dust and debris were moving and colliding when the planet was formed. Some planets are tide locked to their star and have no rotation and therefore no relative "day". One side faces forever toward the blazing heat of it's star, while the other side faces an eternal frozen night.
by this law specific rotation =degree of rotation /concentration of a substance *length of sample tube
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The Earth's and Moon's rotation.
They are precisely equal.
how is the crater density used in the relative dating
you use the moons movement and phases to tell time because of the seasons, rotation, and revolution
To calculate the specific rotation of a compound, you need to measure the observed rotation of a solution of the compound in a polarimeter, and then use the formula: specific rotation observed rotation / (concentration x path length). The observed rotation is the angle of rotation measured in degrees, the concentration is the concentration of the compound in the solution in g/mL, and the path length is the length of the polarimeter tube in decimeters.