Weight on other worlds·72 kg
the Moon
11.89
kg · ×0.165
Mars
27.31
kg · ×0.379

72 kg — 11.89 kg on the Moon, 27.31 kg on Mars

A body that weighs 72 kg on Earth reads 11.89 kg on the Moon, 27.31 kg on Mars and 182.01 kg on Jupiter. The matter is unchanged; only the pull differs.

On Earth 72 kg

Weight on other worldsWhat the scale readsEarth = 1
the Sun2011.7 kg×27.94
Mercury27.17 kg×0.377
Venus65.12 kg×0.904
Earth72 kg×1
the Moon11.89 kg×0.165
Mars27.31 kg×0.379
Jupiter182.01 kg×2.528
Saturn76.65 kg×1.065
Uranus65.12 kg×0.904
Neptune81.86 kg×1.137
Pluto4.55 kg×0.063
Force of gravity
706.1 N
Jump height goes the other way
302.7 cm

The mass stays; only the weight moves

Mass is the matter you are made of; weight is the pull on it. Nobody loses matter by flying to the Moon — only the needle drops to one sixth. That is why physics measures weight in newtons rather than kilograms.

Jump height goes the other way

For the same push, the height you rise is inversely proportional to gravity. A 50 cm jump on Earth becomes over three metres on the Moon — and it does not depend on how much you weigh.

Some of these have no ground

Jupiter, Saturn, Uranus and Neptune have no solid ground; their figures are taken at the cloud tops. The Sun needs no explanation — nothing could stand there, so the number is arithmetic only.

Nearby weights

How to read this

  • Scale reading = Earth weight × (that world’s gravity ÷ Earth’s gravity).
  • Earth’s gravity is 9.80665 m/s², and every ratio here is measured against it.
  • Force in newtons = mass × gravity. A 70 kg person feels about 686 N on Earth.
  • Jump height is inversely proportional to gravity, so the Moon lifts you six times higher.

Frequently asked questions

Q. What would 72 kg read on the Moon?

11.89 kg, because lunar gravity is 0.165 of Earth’s.

Q. And on Mars?

27.31 kg. Venus gives 65.12 kg and Jupiter 182.01 kg.

Q. What is that as a force?

On Earth it is 706.1 N — 72 kg of mass times 9.80665.

Q. Have you actually lost anything?

No. The matter is still 72 kg everywhere; only the pull the scale measures changes.