It is not. The Sun has much more mass, therefore it has a greater gravitational attraction.
The Sun has more gravitational attraction on Earth than the Moon, despite its farther distance. However, the effect on the tides is less, in the case of the Sun - tidal forces obey an inverse cube law, more or less.
It is not. The Sun has much more mass, therefore it has a greater gravitational attraction.
The Sun has more gravitational attraction on Earth than the Moon, despite its farther distance. However, the effect on the tides is less, in the case of the Sun - tidal forces obey an inverse cube law, more or less.
It is not. The Sun has much more mass, therefore it has a greater gravitational attraction.
The Sun has more gravitational attraction on Earth than the Moon, despite its farther distance. However, the effect on the tides is less, in the case of the Sun - tidal forces obey an inverse cube law, more or less.
It is not. The Sun has much more mass, therefore it has a greater gravitational attraction.
The Sun has more gravitational attraction on Earth than the Moon, despite its farther distance. However, the effect on the tides is less, in the case of the Sun - tidal forces obey an inverse cube law, more or less.
There is a pair of equal gravitational forces between the Earth and every other bit of matter in the universe. The only ones that make any difference over the span of several human lifetimes are the pair between the Earth and sun, and the pair between the Earth and moon. Mutual gravitational forces between the Earth and each of the other major planets are affecting the Earth's orbit, but the effects are so small as to be imperceptible over the course of human civilization, and too slow for prediction.
Only one force: the Sun's gravity. The centrifugal force is sometimes quoted as an opposing force, but it is actually a ficticious force. If there were really two opposing and equal forces, Earth would move in a straight line, not in an elipse.
On Mars, the forces can be balanced or unbalanced depending on the specific situation. For instance, a stationary object on the surface experiences balanced forces, as gravitational force and normal force are equal. However, if an object is in motion, such as a rover driving over uneven terrain, the forces acting on it can be unbalanced. Overall, the balance of forces on Mars is context-dependent, similar to Earth.
well it will need to make the forces unequal to take off, but yes it can fly with them all equal.
When equal forces act on an object in opposite directions, they create a state of balance known as equilibrium. This means that the object will not accelerate in any particular direction, but remain stationary or move at a constant velocity.
Yes, the forces between Earth and the Moon follow Newton's third law. The Earth exerts a gravitational force on the Moon, and in return, the Moon exerts an equal but opposite gravitational force on the Earth.
The gravitational forces between me and the Earth can be called "my weight on Earth" or "Earth's weight on me". They're equal, and the label doesn't matter.
The force that pulls an object toward earth also pulls the earth toward the object. The two forces are equal. Together, we refer to them as the forces of gravity.
The Earth and you are attracted to the centers of each other by a pair of equal gravitational forces. The size of the force attracting you toward the center of the Earth is your "weight" on Earth. The size of the force attracting the Earth toward the center of you is the Earth's "weight" on you. They are equal.
The Earth and you are attracted to the centers of each other by a pair of equal gravitational forces. The size of the force attracting you toward the center of the Earth is your "weight" on Earth. The size of the force attracting the Earth toward the center of you is the Earth's "weight" on you. They are equal.
The Earth and you are attracted to the centers of each other by a pair of equal gravitational forces. The size of the force attracting you toward the center of the Earth is your "weight" on Earth. The size of the force attracting the Earth toward the center of you is the Earth's "weight" on you. They are equal.
The gravitational forces on two objects are equal. You attract the earth with a force equal to your weight. Whatever you weigh on earth, that's exactly how much the earth weighs on you.
These forces are called frictional forces. (: My source is the Physical Science with Earth science textbook, Chapter 3. (:
These forces are called frictional forces. (: My source is the Physical Science with Earth science textbook, Chapter 3. (:
As you get farther from the Earth, you attract the Earth with less gravitational force, and the Earth attracts you with less gravitational force. The two forces remain equal as they both decrease.
Gravity is the cause of a pair of forces that attract any two specks of mass toward each other. The forces act along the line between the centers of the objects. As long as you're anywhere near Earth, the forces of gravity pull the Earth toward the center of you, and pull you toward the center of the Earth (and they're equal).
When forces on a body are equal, the body stays still. The forces have to be equal in strength but the direction of application should be exactly opposite.