Free Fall from 7m

An object dropped from 7m takes 1.19 seconds to reach the ground and lands at 11.72 metres per second — that is 42.2 km/h, or 26.2 mph. This page has the full working, and the simulator above is preset to 7m so you can watch the drop happen, scrub through it moment by moment, and read the speed and ...

THE DROP

HOW IT STARTS

GRAVITY — 9.81 m/s²

DROP FROM

FALL TIME

1.19 s

IMPACT SPEED

11.7 m/s

That is 42.2 km/h · 26.2 mph

Drop height

7.00 m

Initial speed

0.00 m/s (rest)

Acceleration

9.81 m/s²

Time to peak

n/a

Speed after 1 s

9.81 m/s

Fallen in 1 s

4.91 m

FALL TIMELINE

TIME

FALLEN

SPEED

LEFT

0.20s

0.2m

2.0

6.8m

0.40s

0.8m

3.9

6.2m

0.60s

1.8m

5.9

5.3m

0.80s

3.1m

7.8

3.9m

1.00s

4.9m

9.8

2.1m

1.19s

7.0m

11.7

0.0m

STEPS

1

Released from rest, so the whole fall is driven by gravity alone: h = ½gt²

2

Rearranged: t = [−v₀ + √(v₀² + 2gh)] ÷ g = [-0.00 + √(0.00 + 137.34)] ÷ 9.81

3

Fall time: t = 1.1946 s

4

Impact speed: v = √(v₀² + 2gh) = √(137.34) = 11.7192 m/s

DROP SIMULATION

RELEASE0.2m10.6m21.0m31.4m41.7m52.1m67.0mEACH NUMBERED BAR = DISTANCE COVERED IN THAT TIME SLICE

TIME

0.00 s

FALLEN

0.0 m

REMAINING

7.0 m

SPEED

0.0 m/s

Galileo's odd-number rule. Each bar is the distance covered in one equal slice of time. Released from rest the six bars grow as 1 : 3 : 5 : 7 : 9 : 11 — the odd numbers, which is the signature of constant acceleration and the pattern Galileo measured on inclined ramps four centuries ago. They sum to 36, or six squared, which is why the last slice alone covers almost a third of the whole drop.

SPEED vs TIME — straight line

12 m/s01.19s0slinear

DISTANCE vs TIME — curve

7 m01.19s0squadratic

Speed climbs in a straight line — gravity adds 9.81 m/s every second. Distance curves upward, because it is the running total of an ever-growing speed.

THE SAME DROP ELSEWHERE

Earth
1.19s
Moon
2.94s
Mars
1.94s
Venus
1.26s
Jupiter
0.75s

Vacuum model. Gravity is the only force here — no air resistance. Real objects stop speeding up once drag balances their weight, and from tall drops the true impact speed is far lower than the ideal figure above.

Live simulation · drawn to scale · updates as you type

Created with❤️byeaglecalculator.com

HOW TO USE

  1. 1

    The calculator above is already set to a 7m drop, released from rest under Earth's gravity, so the answer is on screen: 1.19 seconds to fall and 11.72 m/s at impact.

  2. 2

    Press PLAY or REPLAY to watch the drop run, or drag the scrubber underneath to freeze any instant and read the time, distance fallen, height remaining and current speed at that exact moment.

  3. 3

    Look at the bars beside the tower. Each one is the distance covered in one equal slice of time, and they grow steadily because the object is still accelerating all the way down — over 7m it never reaches a steady speed.

  4. 4

    Change the drop height to compare any other distance, switch to Thrown down or Thrown up to add a starting speed, or tap Moon or Mars to see the same drop under different gravity.

THE FORMULAS

Distance fallenh = v₀t + ½gt²
From resth = ½gt²
Speed at time tv = v₀ + gt
Speed from heightv = √(v₀² + 2gh)
Fall timet = [−v₀ + √(v₀² + 2gh)] / g
Fall time from restt = √(2h / g)
Rise before fallingpeak = v₀² / (2g)
Earth gravityg ≈ 9.81 m/s²

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Last updated: July 29, 2026 · Formula verified · Eagle-eyed accuracy for every calculation.