Just like every other bit of mass in the universe, an astronaut in space is attracted
by gravitational forces toward the Earth, the Sun, the Moon, and every other body
in the solar system, as well as toward the other astronauts traveling with him. The
astronaut's motions are the result of the combination of all of these gravitational
forces.
Don't forget that an astronaut on a "space walk", floating "motionless" outside the
Space Shuttle or the International Space Station, is still in orbit around the Earth,
and also in orbit around the Sun. All of that is the result of gravitational forces
between him and the Earth, and between him and the Sun.
depends on how far away you are. if you walk close by someone on a sidewalk you will feel the equivilant of 1/2 an ants antennas weight ulling you towards them
Yes. They all do - any mass, especially large masses like planets, have a gravitational acceleration that pulls things towards them!
this is because when girls are smart and pretty every 2nd guy likes them and that what makes them popular and guys get attracted towards 'em....!
No, hemoglobin is not attracted to magnets. Hemoglobin is a protein found in red blood cells that carries oxygen, and it does not contain any magnetic properties.
The gravitational pull of the earth is pretty much the same anywhere between the poles and the equator creating a centripetal force pulling things in towards the earth.. However, the rotation of the planet results in an outward centrifugal force pushing things away from the earth. This force is greatest at the equator. Even though the gravitational pull is the same everywhere, the centrifugal force at the equator gives the impression of a very slightly lower gravitational pull.
because both the astronaut and the satellite is attracted towards the center of the earth
We do.BUTThe effect is so very very tiny that you can't tell its happening.
because, the strength of the metal magnet is stronger then that of the earths gravity when held at a close distance.
They better be! Electrical forces are much stronger than gravitational (for the same charged mass).
There is nothing special about the center of the Earth itself; the attraction is in that direction, due to the accumulated effect of the attraction from different parts of the Earth. At the center of the Earth itself, the gravitational attraction towards the left, for example, by some pieces of planet Earth, would be exactly compensated by gravitational attraction towards the right, by other pieces of the planet.
The moon orbits Earth because it is held there by Earth's gravity. The moon is going fast enough that it won't hit Earth, but at the same time is being pulled back in at the same rate it flies away. The same is true for why Earth itself doesn't fly into the sun. the sun is MUCH MUCH MUCH further away than the earth is, so it is attracted to earth because the difference in size and gravity favour the earth. If it was to be attracted to the sun, the sun would need to be bigger or closer (both of which it is doing at aconstant rate, but very gradually over a long perios of time)
Your answer is: pulling towards the Earth
The planet Earth, and everything on the Earth including us, is in orbit around the sun; so yes, we are gravitationally attracted toward the sun, but we don't move closer to the sun because that attraction is counter balanced by the angular momentum that keeps us in orbit.
static electricity
You are measuring the magnitude of the gravitational force that attracts your mass towards the center of the Earth, and the magnitude of the gravitational force that attracts the Earth towards you.
mass is a characterstic property of any matter if a matter exits it must have mass by which it is pulled towards centre of earth bt gravitational force is a kind of attractive force which acts btween centre of mass of 2 or more masses
The force that draws two galaxies towards each other is gravity. The gravitational force between the two galaxies pulls them towards each other and can cause them to collide or interact.