E = mc^2

= 0.25 X 299792458^2

= 2.24688795e16 joules

= 5.3701910850860423707 megatons

Himiko Toga drinks a cup of blood = 5.370 megatons

E = 1/2Iw^2

= 1/2 (5.97219e24 X 5.1e14) X 3.1415926535898^2

= 1.50305039e40 joules

= 3.5923766491395793855 tenatons

That's energy. What about speed? Timeframe is less than a second, but we'll go with a second.

T = 20037.5km/1s

= 20037500/340.29

= Mach 58883.5993

Vin rotates the planet (energy) = 3.592 tenatons

Vin rotates the planet (speed) = Mach 58883.599

The Symphogears channel the songs of the people of the world, punch Nephilim in the face and create a huge cyclone of energy into space in the span of a second. The diameter of the Earth is 12,756.2km.

= 0.221133154 rad

= 12.6699964346479081 degrees

Enter that through the angscaler and we have a distance of 57450km.

Timeframe is 1 second.

T = 57450km/1s

= 57450000/299792458 X 100

= 19.1632573% C

Pretty good all in all. Next up...

The Frontier's hand reaches up and grabs the Moon. The Moon is 384,400km away from the Earth.

Timeframe is 5 seconds.

T = 384,400km/5s

= 76880000/299792458 X 100

= 25.6444076% C

Finall for the dustclouds created when the giant hand hits the Moon. Diameter of the Moon is 3474.8km.

Timeframe is 2 seconds.

1031 pixels = 3474.8km

1 pixel = 3474.8km/1031 = 3.37032008km (3370.32008m)

3370.32008m X 105 = 353.883608km (353883.608m)

353883.608m/2 = 176941.804m

3370.32008m X 240 = 808876.819m

3370.32008m X 246 = 829098.74m

3370.32008m X 121 = 407808.73m

407808.73m/2 = 203904.365m

3370.32008m X 262 = 883023.861m

3370.32008m X 113 = 380846.169m

380846.169m/2 = 190423.084m

3370.32008m X 350 = 1179612.03m

3370.32008m X 129 = 434771.29m

434771.29m/2 = 217385.645m

3370.32008m X 337 = 1135797.87m

3370.32008m X 88 = 296588.167m

296588.167m/2 = 148294.084m

3370.32008m X 399 = 1344757.71m

1344757.71m/2 = 672378.855m

3370.32008m X 240 = 808876.819m

808876.819m/2 = 404438.41m

3370.32008m X 204 = 687545.296m

687545.296m/2 = 343772.648m

343772.648m/2 = 171886.324m

3370.32008m X 97 = 326921.048m

326921.048m/2 = 163460.524m

3370.32008m X 297 = 1000985.06m

1000985.06m/2 = 500492.53m

3370.32008m X 381 = 642045.975m

642045.975m/2 = 321022.987m

Volumes of the 3 on the left as ellipsoids and the other 5 as cones.

V = πr^2h/3

= π X 176941.804^2 X 808876.819/3

= 2.65199016e16m^3

V = πr^2h/3

= π X 829098.74^2 X 203904.365/3

= 1.46780259e17m^3

V = πr^2h/3

= π X 883023.861^2 X 190423.084/3

= 1.55486644e17m^3

V = πr^2h/3

= π X 1179612.03^2 X 217385.645/3

= 3.16765493e17m^3

V = πr^2h/3

= π X 1135797.87^2 X 148294.084/3

= 2.00333945e17m^3

V = 4/3πabc

= 4/3 X π X 672378.855 X 404438.41 X 404438.41

= 4.60688579e17m^3

V = 4/3πabc

= 4/3 X π X 171886.324 X 163460.524 X 163460.524

= 1.92378133e16m^3

V = 4/3πabc

= 4/3 X π X 500492.53 X 321022.987 X 321022.987

= 2.1605209e17m^3

V = 2.65199016e16m^3 + 1.46780259e17m^3 + 1.55486644e17m^3 + 3.16765493e17m^3 + 2.00333945e17m^3 + 4.60688579e17m^3 + 1.92378133e16m^3 + 2.1605209e17m^3

= 1.54186473e18m^3

Weight of a dustcloud is 1.003kg/m^3.

M = 1.54186473e18 X 1.003

= 1.54649032e18kg

T = 642045.975m/2s

= 321022.987m/s

At last, for our kinetic energy.

KE = (0.5)mv^2

= (0.5) X 1.54649032e18 X 321022.987^2

= 7.96873662e28 joules

That's not all though; the Moon visibly rocks when the hand grabs it, considerably in the space of just a frame. First off, we need the radius of the Moon (that being 1737.4km) from it's curvature.

R = (h/2) + c^2/(8h)

= (253/2) + 2250^2/(8 X 253)

= 2627.73518

2627.73518 pixels = 1737.4km

1 pixel = 1737.4km/2627.73518 = 0.661177737km

0.661177737km X 374 = 247.280474km

0.661177737km X 396 = 261.826384km

261.826384km - 247.280474km = 14.54591km

T = 1s/25

= 14.54591km/40ms

= 363647.75m/s

Weight of the Moon is 7.35e22kg.

KE = (0.5)mv^2

= (0.5) X 7.35e22 X 363647.75^2

= 4.85980846e33 + 7.96873662e28

= 4.85988815e33 joules

= 1.1615411448374759473 yottatons

Symphogear's cyclone = 19.1632573% C

Frontier hand reaches to the Moon = 25.6444076% C

Frontier hand whacks the Moon = 1.162 yottatons

The Warrior of Light blasts a Sin Eater hard enough to part infront and behind him. Average height of a man is 176.1cm, or 1.761m. That would mean at least 4.7km to the horizon, or 4700m. How wide is the gap though?

= 0.326554592 rad

= 18.7101999022629677 degrees

Using the angscaler, the gap in the clouds is 1548.6m across.

234 pixels = 1548.6m

1 pixel = 1548.6m/234 = 6.61794872m

6.61794872m X 90 = 595.615385m

Volume as a rectangle.

V = 4700 X 595.615385 X 1548.6

= 4.33513893e9m^3

Density of a cloud is 1.003kg/m^3.

M = 4.33513893e9 X 1.003

= 4.34814435e9kg

Next we need the timeframe.

1.02 seconds.

T = 4700m/1.02s

= 4607.84314/340.29

= Mach 13.5409302

Finally for the KE.

KE = (0.5)mv^2

= (0.5) X 4.34814435e9 X 4607.84314^2

= 4.61603752e16 joules

Given it goes both ways, let's times that by two.

E = 4.61603752e16 X 2

= 9.23207504e16 joules

= 22.065188910133844757 megatons

Warrior of Light parts clouds (speed) = Mach 13.541

Warrior of Light parts clouds (energy) = 22.0652 megatons

Kiss Shot destroys Antartica just by jumping. First off, what are the dimensions of Antartica's rocky and icy parts. The ice shelf covering Antartica is 14000000km^2, or 1.4e+13m^2. The ice shelf is on average 1.9km thick, or 1900m.

V = Ah

= 1.4e+13 X 1900

= 2.66e16m^3

The fragmentation looks pretty violent. Violent fragmentation of ice is

E = 2.66e16 X 825000

= 2.1945e22 joules

Save that for the end. What about the rocky bit? The average elevation in Antartica is 2500m above sea level.

H = 2500m - 1900m

= 600m

V = 1.4e+13 X 600

= 8.4e15m^3

Violent fragmentation of rock is 69000000 joules per m^3.

E = 8.4e15 X 69000000

= 5.79600e23 joules

Finally, to add them both together.

E = 2.1945e22 + 5.79600e23

= 6.01545e23 joules

= 143.77270554493307486 teratons

Let's also get the speed. It takes 12 seconds in that shot to get from Antartica to Japan. Distance from Antartica to Japan is 13,930km

T = 13,930km/12s

= 1160833.33/340.29

= Mach 3411.30603

Kiss Shot destroys Antartica = >143.773 teratons

Fine uses Kadingir to destroy the Moon, Chris blocks most of it but a large chunk of the Moon is still taken out. Diameter of the Moon is 3474.8km, or 3474800m.

443 pixels = 3474800m

1 pixel = 3474800m/443 = 7843.79233m

7843.79233m X 144 = 1129506.1m

1129506.1m/2 = 564753.05m

7843.79233m X 230 = 1804072.24m

1804072.24m/2 = 902036.12m

I...can't be bothered scaling all the swiggily part in detail, so I'm just going with the volume of an ellipsoid for now.

V = 4/3πabc

= 4/3 X π X 564753.05 X 564753.05 X 902036.12

= 1.20511837e18m^3

The mean density of the Moon is 3344kg/m^3.

M = 1.20511837e18 X 3344

= 4.02991583e21kg

Next up for the timeframe and the distance moved.

Timeframe is 3 seconds.

1021 pixels = 1129506.1m

1 pixel = 1129506.1m/1021 = 1106.27434m

1106.27434m X 936 = 1035472.78m

T = 1035472.78m/3s

= 345157.593m/s

Now for our energy.

KE = (0.5)mv^2

= (0.5) X 4.02991583e21 X 345157.593^2

= 2.40049521e32 joules

= 57.373212476099425317 zettatons

A dying Fine later drags this chunk down to Earth, so let's get that too.

Unfortunately, I can't find anything to scale from in that initial shot, but we get later shots of the distance travelled so we'll go with that.

The timeframe for the Nehushtan Armor reaching the moon is 3 seconds, and the timeframe for the Moon chunk falling is 142 seconds. Distance to the Moon is 384,400km away.

T = 384,400km/3s

= 128133333/299792458 X 100

= 42.7406793% C

= 0.161510163 rad

= 9.25385068839294256 degrees

Enter that through the angscaler and we get a distance of 11146000m from the Earth to the Moon chunk, or 11,146km.

T = 11,146km/142s

= 78492.9577/s

KE = (0.5)mv^2

= (0.5) X 4.02991583e21 X 78492.9577^2

= 1.24144467e31 joules

= 2.9671239722753344203 zettatons

Finally, for the Nehushtan Armor's return to Earth.

...Also three seconds, which means it will be the same.

Kadingir's remaining power hits the Moon = 57.373 zettatons

Nehushtan Armor reaches/returns from the Moon = 42.741% C

Fine drags down Moon chunk = 2.967 zettatons

Vanya's power rips apart the moon, draggin huge meteors to Earth, killing everyone. The diameter of the Moon is 3474.8km, or 3474800m.

379 pixels = 3474800m

1 pixel = 3474800m/379 = 9168.33773m

9168.33773m X 73 = 669288.654m

669288.654m/2 = 334644.327m

9168.33773m X 60 = 550100.264m

550100.264m/2 = 275050.132m

520 pixels = 550100.264m (550.100264km)

1 pixel = 550100.264m/520 = 1057.88512m

1057.88512m X 347 = 367086.137m

1057.88512m X 288 = 304670.915m

304670.915m/2 = 152335.457m

1057.88512m X 111 = 117425.248m

117425.248m/2 = 58712.624m

1057.88512m X 282 = 298323.604m

298323.604m/2 = 149161.802m

Calculating the main volume as a conical frustrum, calculating the outsticking bit as an ellipsoid.

V = (1/3)π(r^2+rR+R^2)h

= (1/3) X π X (152335.457^2 + 152335.457 X 275050.132 + 275050.132^2) X 367086.137

= 5.41092356e16m^3

V = 4/3πabc

= 4/3 X π X 58712.624 X 58712.624 X 149161.802

= 2.15381904e15m^3

V = 5.41092356e16 + 2.15381904e15

= 5.62630546e16m^3

The mean density of the Moon is 3344kg/m^3.

M = 5.62630546e16 X 3344

= 1.88143655e20kg

Now for the speed at which the meteor was thrown.

Timeframe is 2.06 seconds. Keep in mind too there's a margin of the above video, which is feint but visible.

= 0.383473476 rad

= 21.9714117300657676 degrees

Enter those values through the angscaler and the distance to the Moon is 8950.1km.

= 0.326673796 rad

= 18.7170297883640657 degrees

That's a distance of 1668.9km. Now we can find the distance the chunk of Moon travelled in that timeframe.

D = 8950.1km - 1668.9km

= 7281.2km

T = 7281.2km/2.06s

= 3534563.11/340.29

= Mach 10386.9144

Last but not least, our energy.

KE = (0.5)mv^2

= (0.5) X 1.88143655e20 X 3534563.11^2

= 1.17525217e33 joules

= 280.89201003824092595 zettatons

Meteor breaks away from the Moon (speed) = Mach 10386.914

Meteor breaks away from the Moon (energy) = 280.892 zettatons

https://en.uesp.net/wiki/Online:Bolt_Escape

E = mc^2

= 62 X 299792458^2

= 5.57228211e18 joules

= 1.331807387667303999 gigatons

Final Results

Bolt Escape = 1.332 gigatons

All Might leaps up the tower on I-Island, ripping the walls of said tower as he goes. Keep in mind, this is a really tall tower. Not sure if Wolfram and his terrorists are Japanese or not, but most characters in MHA are, and he did visit All For One, so we'll be using average height of a Japanese man is 171.2cm, or 1.761m

26 pixels = 1.761m

1 pixel = 1.761m/26 = 0.0677307692m

0.0677307692m X 1433 = 97.0581923m

We don't get quite a full shot of the helipad, but we do in other shots.

337 pixels = 97.0581923m

1 pixel = 97.0581923m/337 = 0.288006505m

0.288006505m X 672 = 193.540371m

0.288006505m X 1045 = 300.966798m

78 pixels = 300.966798m

1 pixel = 300.966798m/78 = 3.85854869m

3.85854869m X 771 = 2974.94104m

All Might in his big form is 220cm (2.20m) tall.

577 pixels = 2.20m

1 pixel = 2.20m/577 = 0.00381282496m

0.00381282496m X 61 = 0.232582323m

50 pixels = 0.232582323m

1 pixel = 0.232582323m/50 = 0.00465164646m

0.00465164646m X 1350 = 6.27972272m

0.00465164646m X 9 = 0.0418648181m

Volume as a rectangular prism (it's an arc, so it'd likely be even higher, but for now that will serve).

V = lhw

= 6.27972272 X 2974.94104 X 0.0418648181

= 782.110361m^3

Violent fragmentation of steel is 568500000 joules/m^3.

E = 782.110361 X 568500000

= 4.4462974e11 joules

= 106.2690583174 tons of TNT

All Might jumps I-Island tower = 106.269 tons of TNT

First up, scaling. We'll need the dimensions of her head vertically and horizontally. Jiro is 154 cm (1.54m) tall.

548 pixels = 1.54m

1 pixel = 1.54m/548 = 0.00281021898m

0.00281021898m X 83 = 0.233248175m

0.00281021898m X 89 = 0.250109489m

Jiro shatters a boulder with her earjacks. This should be fairly straight forward...

73 pixels = 0.250109489m

1 pixel = 0.250109489m/73 = 0.00342615738m

0.00342615738m X 126 = 0.43169583m

0.00342615738m X 254 = 0.870243975m

Volume as half an ellipsoid.

V = 4/3πabc

= 4/3 X π X 0.43169583 X 0.43169583 X 0.870243975

= 0.67933711359/2

= 0.339668557m^3

It';s clearly blown apart pretty violently. Violent fragmentation of rock is 69000000 joules/m^3.

E = 0.339668557 X 69000000

= 23437130.4 joules

= 0.005601608604207 tons of TNT

Not bad...but she can do way better.

Jiro's Heartbeat Fuzz shatters the ground considerably. First the distance from Jiro to the other students...

27 pixels = 0.233248175m

1 pixel = 0.233248175m/27 = 0.0086388213m

0.0086388213m X 801 = 6.91969586m

Enter that through the angscaler, and we have us a distance of 5.24808394m. That's not the total distance though; we also have the distance of the other students attacking Class 1-A. Given the 16 from this point on, we'll be going with the average height of Japanese 16 year olds, the boy for the depth, the girl for the distance. The average height of a 16 year old Japanese boy is 169.4cm (1.694m) and the 16 year old Japanese girl is 157.5cm (1.575m). Scaling the boy's head and torso differently because he's hunched over.

55 + 11 + 16 = 82

82 pixels = 1.575m

1 pixel = 1.575m/82 = 0.0192073171m

0.0192073171m X 18 = 0.345731708m

0.0192073171m X 968 = 18.592683m

100 + 41 = 141

141 pixels = 1.694m

1 pixel = 1.694m/141 = 0.0120141844m

0.0120141844m X 36 = 0.432510638m

0.0120141844m X 83 = 0.997177305m

First to scale from the boys head, then to the girls.

= 0.0949554958 rad

= 5.440549150925710009 degrees

Enter that through the angscaler and have us a distance of 4.6504m

= 0.0475045183 rad

= 2.721808406398736224 degrees

That's a distance of 7.2765m. Now, adding together to get the distance to Jiro...

L = 6.91969586m + 4.6504m + 7.2765m

= 18.8465959m

Volume as a rectangular prism.

V = 18.8465959 X 18.592683 X 0.997177305

= 349.419686m^3

Once again, given fragments are thrown everywhere and dust is heaved up, it's clearly violent fragmentation.

E = 349.419686 X 69000000

= 24109958334 joules

= 5.7624183398662 tons of TNT

Jiro shatters boulder = 0.006 tons of TNT

Heart Fuzz = 5.762 tons of TNT

0:34

Izuku and Allmight halt and destroy a massive block of metal that Wolfram throws at them. That's the best quality version, but unfortunately bits of it are cropped out, so we'll look at some other videos to get the full image. The average height of a Japanese man is 171.2cm, or 1.761m (I don't even recall if Wolfram is Japanese or not, but it's good to go with for now).

946 pixels = 1.761m

1 pixel = 1.761m/946 = 0.0018615222m

0.0018615222m X 140 = 0.260613108m

5 pixels = 0.260613108m

1 pixel = 0.260613108m/5 = 0.0521226216m

0.0521226216m X 194 = 10.1117886m

68 pixels = 10.1117886m

1 pixel = 10.1117886m/68 = 0.148702774m

0.148702774m X 2214 = 329.227942m

That's a ridiculously big cube. A big cube it is though, so obviously volume's as a cube.

V = lhw

= 329.227942 X 329.227942 X 329.227942

= 35685358.3m^3

For it's mass I was suggested to use iron. Cast iron weighs 7300kg/m^3.

M = 35685358.3 X 7300

= 260503115590kg

Now for the timeframe.

Timeframe is 0.54 seconds.

362 pixels = 329.227942m

1 pixel = 329.227942m/362 = 0.909469453m

0.909469453m X 633 = 575.694164m

T = 575.694164m/0.54s

= 1066.1003/340.29

= Mach 3.13291692

Let's get our mighty energy!

KE = (0.5)mv^2

= (0.5) X 260503115590 X 1066.1003^2

= 1.48039993e17 joules

= 35.382407504780111651 megatons

It gets blown apart pretty violently. How much energy would that take? Violent fragmentation of steel is 568500000 joules/m^3.

E = 35685358.3 X 568500000

= 2.02871262e16 joules

= 4.8487395315487571423 megatons

Wolfram throws giant metal block (speed) = Mach 3.134

Wolfram throws giant metal block (energy) = 35.382 megatons

Garnet shatters a huge obsidian block. And yes, these kinds of blocks are Obsidian.

In a previous calc, I put Garnet at being 2.14968787m tall.

241 pixels = 2.14968787m

1 pixel = 2.14968787m/241 = 0.00891986668m

0.00891986668m X 517 = 4.61157107m

0.00891986668m X 759 = 6.77017881m

0.00891986668m X 119 = 1.06146413m

0.00891986668m X 163 = 1.45393827m

Volume of the main bulk as a trapezoid, volume of the top bit as half a cube. This is the formula we'll be using for the former;

A = 1/2(a + b)h

= 1/2 X (1.06146413 + 4.61157107) X 6.77017881

= 19.2037313497m^2

V = 19.2037313497 X 4.61157107

= 88.5593719283m^3

V = 1.06146413 X 1.45393827 X 1.45393827

= 2.24386776039/2

= 1.1219338802m^3

V = 88.5593719283 + 1.1219338802

= 89.6813058085m^3

Obsidian's mass varies, but apparently it's typically at 2600kg/m^3 (according to that link at least).

M = 89.6813058085 X 2600

= 233171.395102kg

Timeframe is 0.75 seconds.

150 pixels = 2.14968787m

1 pixel = 2.14968787m/150 = 0.0143312525m

0.0143312525m X 497 = 7.12263249m

T = 7.12263249m/0.75s

= 9.49684332m/s

KE = (0.5)mv^2

= (0.5) X 233171.395102 X 9.49684332^2

= 10514867.9147 joules

That's not all; we'll also go with a low end of violent fragmentation and a high end of pulverization.

(Low end)

E = 88.5593719283 X 69000000

= 6110596663.05 + 10514867.9147

= 6121111530.96 joules

= 1.462980767437859 tons of TNT

(High end)

E = 88.5593719283 X 200000000

= 17711874385.7 + 10514867.9147

= 17722389253.6 joules

= 4.235752689674952 tons of TNT

Final Results

Garnet destroys Obsidian block (low end) = 1.463 tons of TNT

Garnet destroys Obsidian block (high end) = 4.236 tons of TNT

Ultimately a bit feat, but still nice. Also, Garnet can break Obsidian?]]>

Lapis rocks her gem tower noticably. Looking at the Mercalli Intensity Scale...

The shaking looks around 4. Given this isn't seizemic though, we'll be using an impact calculator.

Going from my previous calculation, Lapis's ocean tower is 2040100m tall. Messing around with the impact calculator until I got magnitude 4, we get a result of

Lapis shakes her tower = 377.629 exotons

Holy shit, moon level Lapis! Seriously though, I'm gonna need a second opinion on if this is done right or not. ]]>

Malachite's ice wall = 631.177 tons of TNT

Alexandrite evaporates water hand = >328.622 tons of TNT

And Lapis alone and each of the Crystal Gems have better than this in anycase.]]>

The Duke of Strawberries jumps with a huge metal ball which comes down and whacks it. Scaling the bomy-knocker from Garnets head, which in a previous calc I put at being 0.560031954m high.

23 pixels = 0.560031954m

1 pixel = 0.560031954m/23 = 0.0243492154m

0.0243492154m X 159 = 3.87152525m

3.87152525m/2 = 1.93576262m

0.0243492154m X 24 = 0.58438117m

0.58438117m/2 = 0.292190585m

0.0243492154m X 31 = 0.754825677m

The ball as a sphere and the pointy bits as cylinders (of which I can count 9).

V = πr^2h

= π X 0.292190585^2 X 0.754825677

= 0.20245521761 X 9

= 1.82209695849m^3

V = 4/3πr3

= 4/3 X π X 1.93576262^3

= 30.3839971844m^3

V = 30.3839971844 + 1.82209695849

= 32.2060941429m^3

Medieval weapons (and weapons in general) are made of steel, which weighs 7850kg/m^3.

M = 32.2060941429 X 7850

= 252817.839022kg

Timeframe is 0.16 seconds.

0.0243492154m X 212 = 5.16203366m

T = 5.16203366m/0.16s

= 32.2627104m/s

KE = (0.5)mv^2

= (0.5) X 252817.839022 X 32.2627104^2

= 131576829.932 joules

Let's also add GPE.

E = 1.93576262 X 9.807 X 252817.839022

= 4799499.92725 joules

E = 131576829.932 + 4799499.92725

= 136376329.859 joules

= 0.03259472510970363 tons of TNT

Duke of Strawberries mace slam = 0.033 tons of TNT

Could've sworn this would've been higher. ]]>