You'll weigh about 90kg. Weight is the force of attraction between you and the Earth due to gravity. Mathematically, weight = GMm/r^2, where G is the gravitational constant, M is the mass of the Earth, m is your mass, and r is the distance from the center of the Earth to you. Earth has a radius of 3963 miles. When you are on the ISS, your radius from Earth's center is 4183 miles. Working out the math, objects 220 miles above Earth weigh about 90% of what they weigh on the surface.
That said, you and the ISS are in constant free-fall toward Earth with zero relative motion between the two of you. The ISS isn't pushing against you like the surface of the Earth does, so you feel a sensation of weightlessness, despite having weight.
A person weighing 100 kg (220 lbs) on the earth would weigh the following on other planets. Notice that along with the weight, I've also written how you convert your earth weight to your weight on that planet:
• Mercury
(earth weight) X 0.38
38 kg (84 lbs)
• Venus
(earth weight) X 0.91
91 kg (200 lbs)
• Mars
(earth weight) X 0.38
38 kg (84 lbs)
• Jupiter
(earth weight) X 2.36
236 kg (520 lbs)
• Saturn
(earth weight) X 0.91
91 kg (200 lbs)
• Uranus
(earth weight) X 0.89
89 kg (196 lbs)
• Neptune
(earth weight) X 1.12
112 kg (247 lbs)
• Pluto (not considered a planet, but I'll list the weight anyway)
(earth weight) X 0.06
6 kg (13 lbs) (we're not very sure about Pluto's gravity, so it's safer to put in "give or take 1 kg".
Edit: In fact there is some uncertainty about all of the "gas giants" too.
Also, to be precise, scientists say a mass in kilograms has a weight in " kilograms weight".
On earth, 66kg weighs 647 newtons or 145.5 lbs.
At standard conditions (sea level, average gravity), the weight of a 66kg man would be approximately 660 Newtons. This is calculated by multiplying the mass (66kg) by the acceleration due to gravity (9.81 m/s^2).
If a stone weighs 66 kg, then its weight is 66 kg. The weight of an object is equal to the force acting on it due to gravity.
The weight of 66 kg is equivalent to approximately 10.43 stones.
An astronaut's weight in outer space would be close to zero because they are in a state of free-fall or microgravity, causing them to feel weightless. Weight is a measure of the force of gravity acting on an object, so without significant gravity in space, an astronaut would not experience weight as they would on Earth.
On earth, 66kg weighs 647 newtons or 145.5 lbs.
The mass of an astronaut remains the same on the moon as it does on Earth. Mass is a measure of the amount of matter in an object and does not change based on location. However, the astronaut's weight would be less on the moon due to the moon's lower gravitational force compared to Earth.
About 700N 70kg • 10m/s = 700N
The weight of a 90-kg astronaut on Earth would be approximately 882.9 Newtons (N). This is calculated by multiplying the astronaut's mass (90 kg) by the acceleration due to gravity on Earth (9.81 m/s^2).
earth, because earth has a greater gravitational pull
The mass of an astronaut on Earth would be the same as their mass in space. Mass is a measure of the amount of matter in an object and does not change with location. It is the weight of the astronaut that would vary depending on the gravitational force acting on them.
At standard conditions (sea level, average gravity), the weight of a 66kg man would be approximately 660 Newtons. This is calculated by multiplying the mass (66kg) by the acceleration due to gravity (9.81 m/s^2).
If a stone weighs 66 kg, then its weight is 66 kg. The weight of an object is equal to the force acting on it due to gravity.
An astronaut weighs less on the moon than on Earth because the gravitational pull on the moon is about one-sixth that of Earth's. This means that there is less force pulling the astronaut down, resulting in a lower weight measurement.
The moon is considerably smaller than the Earth, both in diameter and in mass, and it therefore has a much weaker gravitational field. The weight of an astronaut on the moon is the result of the mass of the astronaut, which is not changed by going to the moon, and the gravitation field of the moon. A weaker gravitational field produces a lower weight.
The weight of 66 kg is equivalent to approximately 10.43 stones.
weight= mass*gravity in this case, an astronauts mass has stayed the same, but the gravitational force acting upon him has decreased, decreasing his weight. gravity decreses because the astronaut is further from the centre of gravitational attraction (the earth)