Ocean tides would be most affected by a change in the moon's mass. A larger moon mass would increase the gravitational pull on the Earth, causing stronger and higher tides.
The moon is affected by the Earth primarily through gravitational forces. This interaction leads to phenomena such as the moon orbiting the Earth, causing tidal effects on Earth's oceans, and influencing the moon's rotation to always keep one face toward Earth.
Earth is affected by the moon's gravity. The moon's gravity exerts just as much force on Earth as Earth's gravity does on the moon, but since Earth is far more massive, it undergoes far less acceleration.
The tides on Earth are affected by the pull of gravity from the moon. This gravitational force causes the ocean to bulge on the side of the Earth facing the moon and on the opposite side, creating high and low tides.
A rock's mass is not affected by the moon. It's weight is a function of mass and gravity. So, the same rock would weigh more on Earth than on the Moon, as the Earth's gravity is greater. In order to effectively confuse the issue, I should point out that gravity is also a function of mass...
if there is no moon then there alway the sun which giving its heat &light
Ocean tides would be most affected by a change in the moon's mass. A larger moon mass would increase the gravitational pull on the Earth, causing stronger and higher tides.
If the moon didn't exist:The Earth would not experience eclipses.Tides would not be nearly as big as they are now.Nights would be much darker.A day on Earth would be MUCH shorter.To name a few.
Every sport because the earth and moon are not in close enough proximity to generate friction between their surfaces. If you mean sports that aren't affected by air-friction, which would be present on earth but less significant on the moon, then mind sports would be a candidate, as would space suit grappling.
The moon is affected by the Earth primarily through gravitational forces. This interaction leads to phenomena such as the moon orbiting the Earth, causing tidal effects on Earth's oceans, and influencing the moon's rotation to always keep one face toward Earth.
The period of a simple pendulum would be longer on the moon compared to the Earth. This is because the acceleration due to gravity is weaker on the moon, resulting in slower oscillations of the pendulum.
The real question would be, what's the distance between the Earth and the Moon in that scenario? If the Earth were five times farther from the Sun, and the Moon remained at the same distance from the Earth, then, the Moon would appear to be larger (in angular size) than the Sun did, and the Sun's corona would also be hidden behind the Moon. The width of the path of totality would also be much larger. Lunar eclipses probably wouldn't be affected too much.
Earth is affected by the moon's gravity. The moon's gravity exerts just as much force on Earth as Earth's gravity does on the moon, but since Earth is far more massive, it undergoes far less acceleration.
If the moon doesn't have inertia, it means that if any force whatsoever is applied to it, it will be way out of wack. Inertia causes something to be resistant against a change in motion so if the moon had too much inertia, it would not move at the proper speed and Earth would be affected by its drop in movement. If the moon had no inertia, it wouldn't continue to keep its proper and exact distance from the earth and Earth would be affected by its increase in movement.Hope this helps!! =)
Presumming that the Moon doesn't stop, the tides would change about twice a month.
The tides on Earth are affected by the pull of gravity from the moon. This gravitational force causes the ocean to bulge on the side of the Earth facing the moon and on the opposite side, creating high and low tides.
A rock's mass is not affected by the moon. It's weight is a function of mass and gravity. So, the same rock would weigh more on Earth than on the Moon, as the Earth's gravity is greater. In order to effectively confuse the issue, I should point out that gravity is also a function of mass...