How high could you jump on the Moon?

About six times higher than on Earth, and you'd stay up six times longer. A jump is a parabola, and gravity g sits on the bottom of its peak-height formula, h = (v sin θ)² / 2g. The Moon's gravity is about one-sixth of Earth's, so a half-meter hop on Earth becomes a three-meter leap.

Pluto: g = 0.62 m/s² (0.063 × Earth)Earth2.87 m high, 6.09 s
Peak height
2.87 m
Jump distance
9.98 m
Time in the air
6.09 s
Times longer than on Earth
×15.8

Challenge: Stay in the air for 5 seconds or more. Done!

A standing jump leaves the ground at about 2.5–3 m/s. A long jumper hits about 9 m/s.
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Play

Pick the Moon and watch both balls jump at real speed. Then try Ceres.

Challenge: Stay in the air for 5 seconds or more. The box under the picture turns green when you get it.

Stuck? Pick one of the examples from the “Try an example” menu, or press “New example.”

Understand

y=xtan⁡θ−g x22v2cos⁡2θy = x\tan\theta - \frac{g\,x^2}{2v^2\cos^2\theta}

A jump is a parabola, just like a thrown ball. Gravity gg is the number that bends it back down:

y=xtan⁡θ−g x22v2cos⁡2θy = x\tan\theta - \frac{g\,x^2}{2v^2\cos^2\theta}

Make gg smaller and the x2x^2 term shrinks, so the arc stretches wider and taller. The peak height, the landing distance, and the hang time all have gg on the bottom, so they all grow by the same factor: gEarth/gg_{\text{Earth}}/g.

The balls move in real time, so you can feel the difference. The dashed arc is the same jump on Earth. Longer hops (like on Ceres) play faster to fit a 20-second loop.

Use

Every input has a unit menu, so you can type values in the units you already have. Results follow your units.

Show the work

  1. The arc (a parabola)y = x\tan\theta - \frac{g\,x^2}{2v^2\cos^2\theta}
  2. With your numbersy = x\tan 49^\circ - \frac{0.62\,x^2}{2(2.5)^2\cos^2 49^\circ}
  3. Peak height: g is on the bottomh = \frac{(v\sin\theta)^2}{2g} = \frac{1.887^2}{2 \times 0.62} = 2.871\ \mathrm{m}
  4. Time in the airt = \frac{2v\sin\theta}{g} = 6.086\ \mathrm{s}
  5. Compared with Earth\frac{g_{\text{Earth}}}{g} = \frac{9.807}{0.62} = 15.82\times\ \text{higher, farther, and longer}

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Choose a world, then set your takeoff speed and angle. A standing vertical jump for most people leaves the ground at 2.5–3 m/s.

  • There's no air resistance here. That's exactly right on the Moon, which has no air.
  • Gravity for Jupiter is at its cloud tops. There is no surface to jump from.
  • Your legs might not push as hard on a low-gravity world without solid footing.

For learning and estimation. Verify with applicable codes, standards, and a qualified professional before using in design, construction, or safety-critical work.

Cheat card

h=(vsin⁡θ)22gh = \frac{(v\sin\theta)^2}{2g}
t=2vsin⁡θgt = \frac{2v\sin\theta}{g}
R=v2sin⁡2θgR = \frac{v^2\sin 2\theta}{g}
SymbolMeaningUnit
vvtakeoff speedm/s
θ\thetatakeoff angle
gggravity where you arem/s²
  • Height, distance, and hang time all scale with 1/g. One-sixth the gravity means six times each.
  • Your legs push the same, and your mass is the same everywhere. Only your weight changes.
  • Astronauts on the Moon hopped instead of walked. Stiff suits made big jumps hard.

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Where it’s used

  • Aerospace
    Engineers design landers and rovers for the Moon's and Mars's gravity, from leg springs to wheel traction.
  • Physics
    The same parabola describes any thrown object once you know g.
  • Sports & Games
    Your standing vertical jump on Earth, times six, is your Moon jump.

Questions people ask

How high could you jump on the Moon?

About 6 times higher than on Earth, because the Moon's gravity is 1.62 m/s², about one-sixth of Earth's 9.81. A 45 cm vertical jump on Earth would be roughly 2.7 m on the Moon, in light clothes. Spacesuits cut that down a lot.

How long would you stay in the air on the Moon?

Also about 6 times longer. Hang time is 2v sin θ ÷ g, and g is 6 times smaller. A half-second hop on Earth lasts about 3 seconds on the Moon.

What is the gravity on Mars?

3.71 m/s², about 38% of Earth's. You could jump about 2.6 times higher there.

Would you weigh less on the Moon?

Yes, about one-sixth as much, but your mass is the same. It would still take the same push to start moving sideways or to stop.