User blog:CRIMPSUMPSKI/Calcs

Krillin pushes the boulder
Roshi is 165 cm tall

Boulder measured.png

Roshi = 116px = 1.65 m

Boulder Width = 714px = 10.15603448275862 m

Boulder height = 736px = 10.46896551724138 m

Treating the boulder as a dome we get a volume of 1,024.82 m3

Using a rock density of 2700 kg/m3 we get a mass of 2,767,014 kg



Boulder = 369 = 10.15603448275862 m

Distance = 40 = 1.100925147182506 m

Now for the timeframe, he starts moving the boulder at frame 1463 and stops at frame 1493 giving us a timeframe of 30 frames which in 25 fps is 1.2 seconds.

Velocity = distance / time = 1.100925147182506 / 1.2 = 0.9174376226520885 m/s

Acceleration = velocity2 / (2 * distance) = 0.91743762265208852 / (2 * 1.100925147182506) = 0.3822656761050368 m/s2

Force = mass * acceleration = 2,767,014 * 0.3822656761050368 = 1,057,734.477502102 N

The frictional coefficient of concrete on soil is .3

We multiply the original force by the previously mentioned coefficient.

1,057,734.477502102 * .3 = 317,320.3432506307 N

Finally, we multiply the two for the Kinetic Frictional Force.

FU = F * U = 1,057,734.477502102 * 317,320.3432506307 = 335,640,667,468.9935 N

Now for the total energy exerted.

W = F * D = 335,640,667,468.9935 * 1.100925147182506 = 369,515,251,233.7362 Joules

Roshi destroys the Moon
The moon blows up at frame 5482 and the fragments are seen traveling up until frame 5601

119 frames / 25 = 4.76 seconds

Distance traveled = 3,475,000m

3,475,000 / 4.76 = 730,042.01680672268907563025210084 m/s

Moon mass = 7.384e+22 kg

Relativistic KE yield: 1.968e+34 Joules

Diameter and Mass
I'll be using the diameter and mass of the earth and it's moon.

Arlia = 12756 km 5.972e+24



Moon = 3,474 km 7.348e+22 kg



Velocity
Arlia+Moon = 22px



Explosion = 522px



522 / 22 = 23.72727272727273

16230 * 23.72727272727273 = 385093.6363636364 km

The explosion starts at frame 398 and starts to end at frame 444

46 / 25 = 1.84 seconds

192546818.1818182 / 1.84 = 104645009.8814229 m/s

The KE
The mass of the planet+moon is 6.04548e+24 kg

Relativistic KE time

KE = 3.646e+40 Joules

Freeza destroys Planet Vegeta calc number 9.99e+100000
I'll be making 3 variations of this calc with different diameters, each will be using 10G as the gravity on the Planetary Parameter Calculator.

Lowest possible result: 12756 km (Earth size), 5.978e+25 kg.

Low-end: 36830 km (minimum for density higher than lead on the PPC), 4.984e+26 kg.

Mid-end: 61768 km (minimum for density >iron), 1.402e+27 kg.

High-end: 89160 km (minimum for normal density), 2.921e+27 kg.

Velocity
The explosion starts at frame 2246 and reaches the second image shown at frame 2289, this gives us 43 frames which at 25 fps is 1.72 seconds.



Vegeta = 401.92px

Explosion = 557px

So the explosion is 1.385847929936306× bigger than Planet Vegeta.

Lowest: 17677.87619426752 km

Low: 51040.77925955415 km

Mid: 85601.05493630575 km

High: 123562.201433121 km

Lowest: 17677.87619426752 / 2 / 1.72 * 1000 = 5138917.498333581 m/s

Low: 51040.77925955415 / 2 / 1.72 * 1000 = 14837435.83126574 m/s

Mid: 85601.05493630575 / 2 / 1.72 * 1000 = 24884027.5977633 m/s

High: 123562.201433121 / 2 / 1.72 * 1000 = 35919244.60265145 m/s

The KE
Relativistic KE time

Lowest: 7.895e+38 J

Low: 5.496e+40 J

Mid: 4.363e+41 J

High: 1.905e+42 J

Freeza destroys Namek
I'll be using the size from this calc, giving Namek a diameter of 76762.2040831 km and mass of 2.165e+26 kg.

Velocity
The timeframe including the time it took for the blast to fade away is 168 frames which at 25 fps is 6.72 seconds.



Explosion = 3034229.093366478 km

3034229.093366478 * 1000 / 2 / 6.72 = 225761093.2564344 m/s

The KE
Relativistic KE calculator

KE = 1.010e+43 Joules

Results
Boulder: City Block Level+

Moon: Large Planet Level

Arlia: Small Star Level

Vegeta (Lowest): Dwarf Star Level

Vegeta (Low): Small Star Level

Vegeta (Mid): Small Star Level+

Vegeta (High): Star Level+

Namek: Large Star Level