They don't. They have just as much gravitational force on them as you and me. The difference is the two initial frames of reference. You and I are being held down to planet. They are "falling" around the planet in an orbital free fall.
Astronauts have to do routine workouts while in space. This is because the less gravity requires a less physical demand on their bodies and when they return to Earth the muscles are weaker and they can have a hard time getting use to our gravitational pull.
Your weight on a planet is determined by its gravitational pull, which affects how much force is exerted on your body. A higher weight due to stronger gravity typically means that you will jump lower because it requires more force to overcome that gravitational pull. Conversely, on a planet with weaker gravity, you would weigh less and could jump higher since less force is needed to lift your body off the ground. Therefore, there is an inverse relationship between your weight and your jump height relative to the gravitational strength of the planet.
Less than 8 hours.
As there is less space , and three men share the craft the amount of space will be less.
Astronauts require less sleep than normal; Theoretically because the astronauts always have to be alert in a dangerous setting like space.
The law of universal gravitation states that the gravitational force between two objects is directly proportional to their masses and inversely proportional to the square of the distance between them. On the moon, where gravity is weaker than on Earth, astronauts experience less gravitational pull. This allows them to bounce or leap with less effort because their weight is reduced.
Astronauts weigh less on the Moon than on Earth due to the Moon's weaker gravitational pull. Gravity is determined by mass and distance; the Moon has only about one-sixth the mass of Earth and a smaller radius, resulting in lower gravitational force. Consequently, objects and people experience less weight on the Moon, making them feel lighter and allowing them to jump higher and move more easily.
If the gravitational force is less than the buoyant force, the drag force will act in the opposite direction of the gravitational force.
Astronauts weigh less on the Moon than on Earth because the Moon has less mass and gravity than Earth. The gravitational force on the Moon is about 1/6th that of Earth, so objects (including astronauts) weigh less on the Moon due to this weaker gravity.
The gravitational force acting on an object is directly proportional to its mass. Therefore, the size of an object, which is related to its volume, can impact the gravitational force acting upon it. Larger objects with greater mass will experience a stronger gravitational force compared to smaller objects with less mass.
An astronaut weighs less on the Moon than on Earth due to the Moon's lower gravitational force. Gravity depends on both the mass of the celestial body and the distance from its center; the Moon has about 1/6th the gravity of Earth because it has significantly less mass. This reduced gravitational pull means that objects, including astronauts, experience less weight on the Moon. Consequently, while their mass remains the same, the force of gravity acting on them is weaker, resulting in a lower weight.
The gravitational force of Venus is 1 kg equals 0.88 kgs. So, slightly less than that of Earth's gravitational force.
less gravitational force pulling you down.
The gravitational force between two objects increases with their masses; the larger the masses, the stronger the force. Additionally, the gravitational force decreases with distance; the farther apart the objects are, the weaker the force between them.
At a greater distance, the gravitational force becomes less.
while the mass of the astronaut doesn't change the acceleration of gravity on the moon is much less than that on earth. Since weight is a measure of force (N)=m(kg)xa(m/(ss)), a decreased gravity on the moon would mean a decreased weight
The law of universal gravitation states that all objects attract each other with a force proportional to their masses and inversely proportional to the square of the distance between them. On the Moon, the gravitational pull is weaker than on Earth due to its lower mass. This means that astronauts experience less gravitational force, allowing them to bounce while walking.