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Viewing blog entries in category: Feats/Respect

Calc request for @Veggie and @Claudio Swiss .
A bunch of novice Green Lanterns survive a supernova. In order to go supernova, a star needs to have at least 8 solar masses. Red Giants at their highest weigh 8 solar masses, and have a diameter of at least 100,000,000.
= 0.260327296 rad
= 14.9156553528899174 degrees
Enter this into the angscaler, and we have a distance from the Sun to the Green Lanterns as 381960000km (or 381960000000m) away. Looking at ChaosTheory123's Ood Bnar calc for reference. The average surface area of a man is 1.9m^2.
A = 4πr^2
= 4 Xπ X 381960000000^2
= 1.83335106e24m^2
A = 1.9/1.83335106e24
= 1.03635362e24m^2
The energy of a supernova is 10^44 joules.
E = 10^44 X 1.03635362e24
= 1.03635362e20 joules
= 24.769445984703629904 gigatons
Final Results
Green Lanterns survive a supernova = 24.769 gigatons
Not as impressive as the supernova itself, I'm afraid. 
In season the season 3 the scope really goes up, namely with the introduction of Horde Prime and his fleets. So let's get us some calcs. Also because this is on Netflix and I couldn't find any other versions of this scene, I couldn't really make any gifs I'm afraid, though still images should work.
Spoiler:
1. First planetary bombardment
Horde Primes fleets bombs a planet and creates some considerable explosions with super fast lasers.
Spoiler:
Timeframe is 1 second (though in actuality it would be even less, at it travels across the screen in only part of a second). First off, to find the radius of the planet, assuming it's Earthsized (which has a radius of 6378.1km, or a diameter of 12,742km).
R = (h/2) + c^2/(8h)
= (292/2) + 1506^2/(8 X 292)
= 1116.90582
6378.1km = 1116.90582 pixels
1 pixel = 6378.1km/1116.90582 = 5.71050834km
5.71050834km X 2100 = 11992.0675km
T = 11992.0675km/1s
= 11992067.5/340.29
= Mach 35240.7285
And keep in mind that would be a low end, and I was unable to calculate or pause from fractions of a second.
5.71050834km X 474 = 2706.78095km
2706.78095km/2 = 1353.39047km
Enter that through the nuke calculator using the above radius of 1353.39047km and playing around and find that for the widespread destruction airburst we get a result of 7710100 megatons, or 7.710100 teratons. Going for a high end of fireball radius, we get 548490000 megatons, or 548.490000 teratons.
2. Second planetary bombardment and giant ships
Similar to the first, but this time we have a much, much bigger ship. Once again assuming an Earthlike size for the planet...
Spoiler:
542 pixels = 12,742km
1 pixel = 12,742km/542 = 23.5092251km
23.5092251km X 90 = 2115.83026km
23.5092251km X 51 = 1198.97048km
2115.83026km  1198.97048km = 916.85978km
23.5092251km X 710 = 16691.5498km
23.5092251km X 100 = 2350.92251km
2350.92251km/2 = 1175.46125km
23.5092251km X 2613 = 61429.6052km
23.5092251km X 2013 = 47324.0701km
23.5092251km X 1086 = 25531.0185km
23.5092251km X 726 = 17067.6974km
First off for the explosion. Once again messing around with the nuke calculator for a radius of 1175.46125km, we get a low end of 5029000 megatons and a high end of 385290000 megatons, or 5.029000 teratons and 385.290000 teratons respectively.
Next for the speed of the lasers (remember again that this was a low end, and the lasers flew this distance in a fraction of a second.
T = 16691.5498km/1s
= 16691549.8/340.29
= >Mach 49050.9559
Let's also get the cruising speed of the ship.
T = 916.85978km/1s
= 916859.78/340.29
= Mach 2694.34829
Final Results
Ships shoots planet = >Mach 35240.726
Bombardment explosion on first planet (low end) = 7.710 teratons
Bombardment explosion on first planet (low end) = 548.49 teratons
Giant ship length = 61429.605km
Bombardment explosion on second planet (low end) = 5.029 teratons
Bombardment explosion on second planet (high end) = 385.29 teratons
Giant ship shoots second planet = >Mach 49050.956
Giant ship cruising speed = Mach 2694.348
There's also the kinetic energy the giant ship would generate, but unfortunately we can't see the other side of the ship, and thus can't scale its full dimensions. 
V = 6.061e+8 X 0.3048
= 184739280m^3
Newly fallen snow weighs between 70kg to 150kg per m^3 (or an average of 110kg), while snowpacks range from 200kg to 300kg per m^3 (or an average of 250kg).
https://www.islandnet.com/~see/weather/almanac/arc2007/alm07feb.htm
M = 184739280 X 110
= 20321320800kg
(High end)
M = 184739280 X 250
= 46184820000kg
This scene if I recall correctly took place before Christas and Winter, so is likely at some point in Autumn, the temperatures of Autumn being variable, and an average will be gathered below (from the temperatures in celcius).
T = −18 + 21 + 21 + 22 + 24 + 32 + 34 + 37 + 38
= 211/9
= 23.4444444
Specific heat of air between 0 and 40 degrees celsius is 1.005 kilojoules. We can also add the heat fusion of oxygen, which is is 13800 joules/kg.
(Low end)
E = 23.4444444 X 1.005 X 20321320800
= 4.78804186e11 kilojoules
= 4.78804186e14 joules
E = 20321320800 X 13800
= 2.80434227e14 joules
E = 4.78804186e14 + 2.80434227e14
= 7.59238413e14 joules
= 181.462335803059261 kilotons
(High end)
E = 23.4444444 X 1.005 X 46184820000
= 1.08819133e12 kilojoules
= 1.08819133e15 joules
E = 46184820000 X 13800
= 6.37350516e14 joules
E = 1.08819133e15 + 6.37350516e14
= 1.72554185e15 joules
= 412.4144000956022751 kilotons
Final Results
Shadow thinks of snow (low end) = 181.462 kilotons
Shadow thinks of snow (high end) = 412.414 kilotons 
2:07
Spoiler:
Homer Simpson accidentally causes a test simulation to melt into the ground, which he quite literally shakes off a few seconds later. Also of note...
https://www.simpsonsarchive.com/episodes/1F02.html
1586 pixels = 180.34cm
1 pixel = 180.34cm/1586 = 0.11370744cm
0.11370744cm X 492 = 55.9440605cm
230 pixels = 55.9440605cm
1 pixel = 55.9440605cm/230 = 0.243235046cm
0.243235046cm X 184 = 44.7552485cm
63 pixels = 44.7552485cm
1 pixel = 44.7552485cm/63 = 0.71040077cm
0.71040077cm X 464 = 329.625957cm
0.71040077cm X 1317 = 935.597814cm
1077 pixels = 935.597814cm
1 pixel = 935.597814cm/1077 = 0.868707348cm
0.868707348cm X 258 = 224.126496m
0.868707348cm X 335 = 291.016962cm
And on top of that, given we can no longer see the inspection van, we can add its height too as it would have sunk below that.
H = 329.625957 + 224.126496m
= 553.752453cm
Volume of the area as a rectangular prism.
V = lhw
= 935.597814 X 291.016962 X 553.752453
= 150772857cm^3
Energy to melt rock is 4350 joules per cm^3.
E = 150772857 X 4350
= 655861927950 joules
= 156.754762894359 tons of TNT
Final Results
Homer fails inspection = 156.755 tons of TNT 
First off, I'll like to note that I'm not entirely sure of the background of this feat, how it was done or if it would scale entirely to Audrey II, but it's worth bringing up in anycase.
1:03
https://littleshop.fandom.com/wiki/DaDoo
Audrey II arrives during a mysterious Solar Eclipse (that's clearly noted as being sudden), and visibly zaps down to Earth during it. All we need here is the diameter of the Moon (3474.8km) and its mass (7.34767309e22kg), and we have both, so let's get down to it!
Spoiler:
Timeframe is 0.92 seconds.
69 pixels = 3474.8km
1 pixel = 3474.8km/69 = 50.3594203km
50.3594203km X 10 = 503.594203km
T = 503.594203km/0.92s
= 547385.003m/s
Now we just need our kinetic energy.
T = (0.5)mv^2
= (0.5) X 7.34767309e22 X 547385.003^2
= 1.1007929e34 joules
= 2.6309581739961762636 yottatons
As well as that, what about the speed at which Audrey II arrived on Earth. In Mean Green Mother From Outer Space, Twoey confirms it came from "past the stars and beyond the Moon," and given it arrives the a Solar Eclipse, I think it's safe to calculate the distance from the Earth to the Moon (that being 384,400km).
Spoiler:
3.12 seconds.
T = 384,400km/3.12s
= 123205128/299792458 X 100
= 41.096807% C
Final Results
Solar Eclipse = 2.631 yottatons
Audrey II arrives on Earth = 41.097%C
No idea if this scales to Audrey alone or it's entire race, but it's definately worth looking into. 
Various calc requested by @MatthewSchroeder .
1. Dragon monster melts the Moon
Spoiler:
A dragon monster melts a chunk of the Moon. Diameter of the Moon is 3474.8km, or 3474800m.
467 pixels = 3474800m
1 pixel = 3474800m/467 = 7440.68522m
7440.68522m X 116 = 863119.486m
7440.68522m X 47 = 349712.205m
863119.486m  349712.205m = 513407.281m
7440.68522m X 246 = 1830408.56m
1830408.56m/2 = 915204.28m
Volume as the larger part as a demisphere, and the larger part as a spherical cap.
V = 4/3πr^3
= 4/3 X π X 915204.28^3
= 3.21101797e18m^3
V = 4/3πr/3(3r  h)
= 4/3 X π X 915204.28/3 (3 X 915204.28  349712.205)
= 3.06164054e12m^3
V = 3.21101797e18 + 3.06164054e12
= 3.21102103e18m^3
The volume of the Moon is 21,900,000,000km^3 (or 2.19e+19m^3) and weighs 7.34700e22kg.
V = 3.21102103e18/2.19e+19 X 100
= 14.6621965%
M = 14.6621965/100 X 7.34700e22
= 1.07723158e22kg
Rock is typically molten at 1200C.
E = 1.07723158e22 x 1200 x (42120)
= 5.18363836e27 joules
= 1.2389193021032506294 exotons
2. Mum causes an explosion
Spoiler:
The mum causes a huge explosion which wipes out a great amount of land. Average height of a Japanese woman is 158.8cm. (or 1.588m).
98 pixels = 1.588m
1 pixel = 1.588m/98 = 0.0162040816m
0.0162040816m X 409 = 6.62746937m
9 pixels = 6.62746937m
1 pixel = 6.62746937m/9 = 0.736385486m
0.736385486m X 140 = 103.093968m
0.736385486m X 2011 = 1480.87121m
Volume as a cylinder.
V = πr^2h
= π X 1480.87121^2 X 103.093968
= 710260574m^3
Given there are huge dust clouds and no sign of rocks or shards being thrown around, I think it's safe to assume pulverization. Pulverization of rock is 200000000 joules per m^3.
E = 710260574 X 200000000
= 1.42052115e17 joules
= 33.951270315487569462 megatons
3. Mum flies into space
The mum flies into space to move the planet to extend its orbit to make the years longer. From the looks of the rings, she's moving it to Mars orbit. Thankfully, I found a formula which should prove useful.
V = [G*M_sun * (2/r  1/a)]1/2
V = (G*(1.99e30) * (2/r  1/a))^(1/2)
= ((6.674×10^−8)(1.99e30)/(150000000000))^(1/2)
= 940966.17m/s
That's the speed the planet is travelling at before being moved.
V = (G*(1.99e30) * (2/r  1/a))1/2
= ((6.67400e8)(1.99e30)(2/228000000000  1/150000000000))^(1/2)
= 528777.338m/s
KE = (0.5)mv^2
= (0.5) X 5.97219e24 X 940966.17^2
= 2.64394027e36 joules
KE = (0.5)mv^2
= (0.5) X 5.97219e24 X 528777.338^2
= 8.34928505e35 joules
KE =2.64394027e36  8.34928505e35
= 1.80901176e36 joules
= 432.36418738049712829 yottatons
Final results
Dragon melts the Moon = 1.239 exotons
Mum makes a crater = 33.951 megatons
Mum alters the planet orbit = 432.364 yottatons 
Calc request for @MatthewSchroeder .
Spoiler:
Metal Knight barrages the meteor with missiles that cause huge fireballs. According the the One Punch Man guide, the meteor is 200m across (see top right corner).
To get the size of the fireball, we'll need the distance to the meteor.
= 0.0352641075 rad
= 2.020484528050644712 degrees
Enter that through the angscaler, and you'll get a distance of 5670.9m.
= 0.847698396 rad
= 48.5695403909300296 degrees
Once again using the above angscaler, we can ascertain that the fireball is 5117.4m across, or a radius of 2558.7m. Now we enter those values through the nuke calculator, and the minimum fireball radius of 2558.7m would be 77 megatons.
Final Results
Metal Knight blasts meteor = 77 megatons 
Calc request for @Blakk Jakk .
Spoiler:
Fuji makes a crater in the ground and blows up some houses. Not entirely sure how to scale this, though there's a broken door nearby, so I'll try scaling from that.
https://en.wikipedia.org/wiki/Plank_(wood)
5 pixels = 38mm = 0.038m
1 pixel = 0.0385m/5 = 0.0077m
0.0077m X 674 = 5.1898m
5.1898m/2 = 2.5949m
0.0077m X 121 = 0.9317m
Volume as a spherical cap.
V = πH^2 (R  1/3 H)
= π X 0.9317^2 (2.5949  1/3 X 0.9317)
= 6.22961978m^3
Let's go for a low end of violent fragmentation and a high end of pulverization. Violent fragmentation of rock is 69000000 joules per m^3 and pulverization of rock is 200000000 joules per m^3.
(Low end)
E = 6.22961978 X 69000000
= 429843765 joules
= 0.102735125478 tons of TNT
(High end)
E = 6.22961978 X 200000000
= 1245923956 joules
= 0.2977829722753 tons of TNT
Final Results
Fuji makes a crater (low end) = 0.103 tons of TNT
Fuji makes a crater (high end) = 0.298 tons of TNT 
Calc request from @Cipher97 .
Spoiler:
A singluarity threatens to destroy half of the Northern Union, aka the Soviet Union, and focuses on Tromsö in Norway, near where the Tirpitz sank, as you can see the singularity above the ocean in the image too. Another big calc, so let's get calcing!
Spoiler:
Final Result
Singularities threatens the Northern Union (low end) = 321.255 teratons
Singularities threatens the Northern Union (high end) = 6.946 exatons 
19:53
Captain Planet foils Punders dastardly plan to turn the Earths forests into air conditioners by collecting all the glass domes and recycling them. The diameter of the Earth is 12756.2km, or 12756200m.
1264 pixels = 12756200m
1 pixel = 12756200m/1264 = 10091.9304m
10091.9304m X 220 = 2220224.69m
10091.9304m X 117 = 1180755.86m
12756200m/2 = 6378100m
A quick search reveals the average height of a man is 5 feet 9 inches, or 1.7526m.
1560 pixels = 1.7526m
1 pixel = 1.7526m/1560 = 0.00112346154m
0.00112346154m X 64 = 0.0719015386m
Volume as a demisphere.
V = 4/3πr^3
= 4/3 X π X 6378100^3
= 1.08683241e21/2
= 5.43416205e20m^3
R = 6378100m  0.0719015386m
= 6378099.93m
V = 4/3πr^3
= 4/3 X π X 6378099.93^3
= 1.08683238e21/2
= 5.4341619e20m^3
Weight of glass is 2579kg/m^3.
M = 5.4341619e20 X 2579
= 1.40147035e24kg
Captain Planet is carrying at least four domes when he zooms around the planet.
M = 1.40147035e24 X 4
= 5.6058814e24kg
Now, how about the timeframe? The circumference of the Earth is 40,075km.
0.5 seconds.
T = 40,075km/0.5s
= 80150000/299792458 X 100
= 26.7351622% C
Enter that into the relativistic kinetic energy calculator and we get a result of 4.758E+39 joules, or 1.1371892925430210307 tenatons. Keep in mind he picks up even more of these domes when he zooms around the world.
Final Results
Captain Planet flies around the planet with giant domes = 26.735% C
Captain Planet moves giant domes = >1.137 tenatons 
(Episode 11)
Spoiler:
Adam calls down the power of Orion and channels it into Tiki.
Spoiler:
Timeframe is 10 seconds. The furthest star in the constellation of Orion is 2000 lightyears away from the Earth (or 1.89210568e19m).
T = 1.89210568e19m/10s
= 1.89210568e18/299792458
= 6311385190 C
Final Results
Adam calls down the power of Orion = 6311385190C 
I'm surprised this hasn't been brought up before.
E = mc^2
= 0.25 X 299792458^2
= 2.24688795e16 joules
= 5.3701910850860423707 megatons
Final Results
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
Final Results
Vin rotates the planet (energy) = 3.592 tenatons
Vin rotates the planet (speed) = Mach 58883.599 
There's a few good feats from Symphogear G. To start with...
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.
Spoiler:
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.
Spoiler:
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.
Spoiler:
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
Spoiler:
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
Final Results
Symphogear's cyclone = 19.1632573% C
Frontier hand reaches to the Moon = 25.6444076% C
Frontier hand whacks the Moon = 1.162 yottatons 
Calc request from @John Wayne.
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 0.825 joules per cm^3, or 825000 joules per m^3.
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
Final Results
Kiss Shot destroys Antartica = >143.773 teratons
Kiss Shot jumps from Antartica to Japan = Mach 3411.306
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