Objects in free fall under the influence of gravity move downward in a straight line at a constant acceleration of 9.8 m/s^2. This acceleration towards the center of the Earth causes the object to increase in speed as it falls. The motion of objects in free fall can be described using the equations of linear motion.
The cannonball and Earth both fall towards each other due to gravity. However, the Earth's much larger mass results in the cannonball appearing to fall towards the Earth because the Earth's gravitational force is much stronger. This is in accordance with Newton's law of universal gravitation.
The object in free fall is actually accelerating toward the earth, this acceleration is caused by gravity. So, yes gravity will be acting on a falling object and any object near the earth. It might help you to think of the same object on the other side of the earth falling up to remind you that it is the earth pulling on everything around it toward the centre. The phrase "free fall" is really misleading imoh.
Gravity pulls objects toward the center of the Earth, causing them to accelerate as they fall. This acceleration increases their speed until they reach the ground or another surface.
The acceleration of falling objects is affected by gravity because gravity is the force that pulls objects toward the center of the Earth. As objects fall, they accelerate due to this gravitational force acting upon them, increasing their speed until they reach terminal velocity or the ground.
Objects fall when dropped due to the force of gravity. Gravity is a natural force that pulls objects toward each other. When an object is dropped, gravity pulls it downward toward the center of the Earth, causing it to accelerate and fall.
There is none. Let's say you and the earth were the only 2 objects in our Universe. The two of you would immediately start falling toward EACH OTHER. Of course, with earth being a gigantatillion times bigger than you, all you would notice (if you had delicate instruments to measure your movement) is you falling toward earth. So there is no definite distance from earth before you start falling toward it. In reality, there are trillions of stars and gazillions of tons of space dust - you would fall toward them instead of toward earth, but there would STILL be a tiny tiny amount of falling toward earth.
They don't fall because they're travelling too fast to fall. An orbit is technically a fall. An object orbits when it falls at the same rate as its forward movement, so while it's falling toward the earth, the earth is falling away from it below.
The cannonball and Earth both fall towards each other due to gravity. However, the Earth's much larger mass results in the cannonball appearing to fall towards the Earth because the Earth's gravitational force is much stronger. This is in accordance with Newton's law of universal gravitation.
Well, for one thing, at every place you've ever been in your life, or are ever likely to be, "down" is always the direction toward the center of the Earth. When you think of it that way, it would be pretty weird to expect the Earth to fall toward the center of the Earth, wouldn't you say ?
Objects fall toward the center of the Earth due to the force of gravity pulling them downwards.
The object in free fall is actually accelerating toward the earth, this acceleration is caused by gravity. So, yes gravity will be acting on a falling object and any object near the earth. It might help you to think of the same object on the other side of the earth falling up to remind you that it is the earth pulling on everything around it toward the centre. The phrase "free fall" is really misleading imoh.
Satellites orbit the earth for a few years then fall to earth however they are directed to fall to the sea
They do fall. But they're traveling fast enough so that the surface of the Earth falls away from them as fast as they are falling. Same thing that keeps the Earth from falling into the sun.
Until the object reaches it terminal velocity
a object is a thing earth can fall by leaning over.
No, the earth is round as far as I know
Yes, it is true that a satellite in orbit around Earth is constantly falling toward the planet. However, it also has a significant tangential velocity that keeps it in a continuous free-fall state, resulting in a curved path around Earth rather than a direct descent. This balance between gravitational pull and orbital speed allows the satellite to maintain its orbit.