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  1. A gems tale by Lapis Lazuli.
    http://steven-universe.wikia.com/wiki/Can't_Go_Back/Transcript
    Lapis flies from the Earth to the edge of the Milky Way and back again in a relatively short timeframe. Not sure what the exact timeframe is yet, but it sure didn't take dozens of millennia. Lapis flew off in Raising the Barn, which aired on the 22nd of Decembe, 2017, and was back at the Moon in Can't Go Back which aired on the 7th of May, 2018. We'll go for how long it takes her to fly to the edge of the galaxy.

    T = 31 - 22
    = 9 + 31 + 28 + 31 + 30 + 7
    = 136/2
    = 68 X 24 X 60 X 69
    = 6756480 seconds

    The shortest distance to the edge of the Milky Way is 20,000 lightyears (or 1.89215e+20m).

    T = 1.89215e+20m/6756480s
    = 2.80049671e13/299792458
    = 93414.5151 C

    Final Results
    Lapis flies to the edge of the Milky Way = 93414.515 C


    And to top it up, she did this while dragging a barn and the rock beneath it across space at these speeds.

  2. Gauss Weapons can fire pojectiles at over 5000m a second. Seems easy enough.

    T = 5000m1/s
    = 5000/340.29
    = Mach 14.6933498

    Final Results
    Gauss weapons = >Mach 14.693
  3. Calc request for @NightmareCinema .

    0:16

    Harry takes off a lasso before the electricity can reach him. Harry is played by Colin Firth, who is 1.87m tall.

    878 pixels = 1.87m
    1 pixel = 1.87m/878 = 0.00212984055m
    0.00212984055m X 126 = 0.268359909m

    = 2*atan(71/(249/tan(70/2)))
    = 0.268581329 rad
    = 15.3885766077527943 degrees

    Put that through the angscaler and we get 0.99316m away. A quick search reveals that the speed of electricity is between 50% to 99% of light.

    (Low end)

    T = 299792458 X 50/100
    = 149896229m/s

    T = 0.99316m/149896229m X 1s
    = 6.62565034 nanoseconds

    That's the amount of time it would take the electricity to pass along the wire. How quickly can Harry lift the rope over his head?

    T = 0.268359909m/6.62565034ns
    = 40503180.1/299792458 X 100
    = 13.5104066% C

    Let's also find the energy for that. Colin Firth weighs 76kg, and the average mass of upper arms in males is 3.25%.

    M = 3.25/100 X 76
    = 2.47kg

    Enter those values through the relativistic kinetic energy calculator and have you 8.576E+15 joules, or 2.04971319312 megatons.

    (High end)
    T = 299792458 X 99/100
    = 296794533m/s

    T = 0.99316m/296794533 X 1s
    = 3.34628805 nanoseconds

    T = 0.268359909m/3.34628805ns
    = 80196296.6/299792458 X 100
    = 26.7506051% C

    And that's 8.396E+15 joules, or 2.001 megatons.

    Final Results
    Harry removes noose (speed - low end) = 13.510% C
    Harry removes noose (energy - low end) = 490.918 kilotons
    Harry removes noose (speed - high end) = 26.751% C
    Harry removes noose (energy - high end) = 2.001 megatons


  4. Spoiler:



    The Volcanic Ray spell melts the ground and causes lava to burst up. Continental crust ranges from 30km to 50km, which averages out at 40km (40,000m). First off, let's find the speed.

    Spoiler:


    2.29 seconds. We'll split that in half for the time for the heat ray to reach below the crust and for the lava to burst up.

    T = 2.29s/2
    = 40,000m/1.14500s
    = 34934.4978/340.29
    = Mach 102.660959

    Amanda is 167cm tall, or 1.67m.

    139 pixels = 1.67m
    1 pixel = 1.67m/139 = 0.0120143885m
    0.0120143885m X 6 = 0.072086331m

    0.0120143885m X 505 = 6.06726619m
    6.06726619m/2 = 3.03363309m
    3.03363309m - 0.072086331m = 2.96154676m

    Volume as a cylinder.

    V = πr^2h
    = π X 3.03363309^2 X 40,000
    = 1156474.26m^3

    V = πr^2h
    = π X 2.96154676^2 X 40,000
    = 1102166.11m^3

    V = 1156474.26 - 1102166.11
    = 54308.15m^3

    There are various densities of magma, those being basalt, andesite and rhyolite. We'll go with the average rhyolite, as that weighs the least. Rhyolite magma weighs between 2180 and 2250kg per m^3, which averages out at 2215kg per m^3.

    M = 54308.15 X 2215
    = 120292552kg

    At last for our energy.

    KE = (0.5) X 120292552 X 34934.4978^2
    = 7.34036662e16 joules

    Let's also get the energy for the heat ray to melt the rock. Melting rock takes 4350000000 joules per m^3.

    E = 54308.15 X 4350000000
    = 2.36240452e14

    E = 7.34036662e16 + 2.36240452e14
    = 7.36399067e16 joules
    = 17.6003601099 megatons

    Final Results
    Volcanic Ray (speed) = Mach 102.661
    Volcanic Ray (energy) = 17.600 megatons


    Which all in all is consistent with Akko's Shooting Star feat and Vajorios's sneeze.
  5. Spoiler:









    The time loop that Akko and her friends get caught in causes multiple stars to glow brighter than usual. This is going to take a bit...
    Spoiler:
    Finding the luminousity level for these stars and their distance shouldn't be too hard; we'll just look them up. The conversion factor from lux to apparent magnitude is -2.5 log I - 14.2. I'll be using the below formula, step by step, adding everything up at the end.


    Pollux is 34 lightyears (321664836067747200m) away and has an apparent magnitude of 1.14.

    M = -26.73 - 2.5log ((L/3.846*10^26)(146000000000/d)^2)
    (146000000000/(321664836067747200))^2) = 2.06014855e-13
    1.14 - -26.73 = 2.06014855e-13/((L/3.846*10^26)
    27.87 = -2.5Log(2.06014855e-13/((L/3.846*10^26))
    27.87/-2.5 = (2.06014855e-13/((L/3.846*10^26))
    10^(-11.14800) = (2.06014855e-13/((L/3.846*10^26))
    7.11213514e-12 = (2.06014855e-13/((L/3.846*10^26))
    7.11213514e-12 X (3.864*10e26) = 2.06014855e-13
    2.74812902e16/2.06014855e-13 = 1.33394702e29 joules

    Gienah is 154 lightyears (1.457e+18m) away and has an apparent magnitude of 2.585.

    (146000000000/(1.457e+18))^2) = 1.00412229e-14
    2.585 - -26.73 = 1.00412229e-14/((L/3.846*10^26)
    29.31500 = -2.5Log(1.00412229e-14/((L/3.846*10^26))
    29.31500/-2.5 = (1.00412229e-14/((L/3.846*10^26))
    10^(-11.72600) = (1.00412229e-14/((L/3.846*10^26))
    1.87931682e-12 = (1.00412229e-14/((L/3.846*10^26))
    1.87931682e-12 X (3.864*10e26) = 1.00412229e-14
    7.26168019e15/2.06014855e-13 = 3.52483329e28 joules

    Ankaa is 85 lightyears (8.042e+17m) away and has an apparent magnitude of 2.377.

    (146000000000/(8.042e+17))^2) = 3.29592692e-14
    2.377 - -26.73 = 3.29592692e-14/((L/3.846*10^26)
    29.10700 = -2.5Log(3.29592692e-14/((L/3.846*10^26))
    29.10700/-2.5 = (3.29592692e-14/((L/3.846*10^26))
    10^(-11.6428) = (3.29592692e-14/((L/3.846*10^26))
    2.27614539e-12 = (1.00412229e-14/((L/3.846*10^26))
    2.27614539e-12 X (3.864*10e26) = 1.00412229e-14
    8.79502579e15/2.06014855e-13 = 4.26912214e28 joules

    Shaula is 570 lightyears (5.393e+18m) away and has an apparent magnitde of 1.62.

    (146000000000/(5.393e+18))^2) = 7.32900252e-16
    1.62 - -26.73 = 7.32900252e-16/((L/3.846*10^26)
    28.35 = -2.5Log(7.32900252e-16/((L/3.846*10^26))
    28.35/-2.5 = (7.32900252e-16/((L/3.846*10^26))
    10^(-11.34) = (7.32900252e-16/((L/3.846*10^26))
    4.5708819e-12 = (7.32900252e-16/((L/3.846*10^26))
    4.5708819e-12 X (3.864*10e26) = 7.32900252e-16
    1.76618877e16/7.32900252e-16 = 2.40986241e31 joules

    Algol is 92.8 lightyears (8.7796e+17m) away and has an apparent magnitude of 2.12.

    (146000000000/(8.7796e+17))^2) = 2.76538913e-14
    2.12 - -26.73 = 2.76538913e-14/((L/3.846*10^26)
    28.85 = -2.5Log(2.76538913e-14/((L/3.846*10^26))
    28.85/-2.5 = (2.76538913e-14/((L/3.846*10^26))
    10^(-11.54) = (2.76538913e-14/((L/3.846*10^26))
    2.8840315e-12 = (2.76538913e-14/((L/3.846*10^26))
    2.8840315e-12 X (3.864*10e26) = 2.76538913e-14
    1.11438977e16/2.76538913e-14 = 4.02977562e29 joules

    Mimosa is 280 lightyears (2.649e+18m) away and has an apparent magnitude of 1.25.

    (146000000000/(2.649e+18))^2) = 3.03767841e-15
    1.25 - -26.73 = 3.03767841e-15/((L/3.846*10^26)
    27.98 = -2.5Log(3.03767841e-15/((L/3.846*10^26))
    27.98/-2.5 = (3.03767841e-15/((L/3.846*10^26))
    10^(-11.19200) = (3.03767841e-15/((L/3.846*10^26))
    6.42687717e-12 = (3.03767841e-15/((L/3.846*10^26))
    6.42687717e-12 X (3.864*10e26) = 2.06014855e-13
    2.48334534e16/3.03767841e-15 = 8.17514234e30 joules

    Canopus is 310 lightyears (2.933e+18m) away and has an apparent magnitude of −0.74.

    (146000000000/(2.933e+18))^2) = 2.4778875e-15
    −0.74 - -26.73 = 2.4778875e-15/((L/3.846*10^26)
    25.99 = -2.5Log(2.4778875e-15/((L/3.846*10^26))
    25.99/-2.5 = (2.4778875e-15/((L/3.846*10^26))
    10^(-10.39600) = (2.4778875e-15/((L/3.846*10^26))
    4.01790811e-11 = (2.4778875e-15/((L/3.846*10^26))
    4.01790811e-11 X (3.864*10e26) = 2.4778875e-15
    1.55251969e17/2.4778875e-15 = 6.26549708e31 joules

    That's not all! Then there are the seven major stars of the Horologium constellation; Alpha Horologii, R Horologii, Beta Horologii, Mu Horologii, Zeta Horologii, Eta Horologii and Iota. Alpha Horologii is 117 lightyears (1.107e+18m) from the Sun and has an apparent magnitude of 3.853.

    (146000000000/(1.107e+18))^2) = 1.73944407e-14
    3.853 - -26.73 = 1.73944407e-14/((L/3.846*10^26)
    30.58300 = -2.5Log(1.73944407e-14/((L/3.846*10^26))
    30.58300/-2.5 = (1.73944407e-14/((L/3.846*10^26))
    10^(-12.2332) = (1.73944407e-14/((L/3.846*10^26))
    5.8452084e-13 = (1.73944407e-14/((L/3.846*10^26))
    5.8452084e-13 X (3.864*10e26) = 1.73944407e-14
    2.25858853e15/1.73944407e-14 = 1.29845424e29 joules

    R Horologii is 1000 lightyears (9.461e+18m) away and has an apparent magnitude of 7.22.

    (146000000000/(9.461e+18))^2) = 2.38139604e-16
    7.22 - -26.73 = 2.38139604e-16/((L/3.846*10^26)
    33.95 = -2.5Log(2.38139604e-16/((L/3.846*10^26))
    33.95/-2.5 = (2.38139604e-16/((L/3.846*10^26))
    10^(-13.58) = (2.38139604e-16/((L/3.846*10^26))
    2.63026799e-14 = (2.38139604e-16/((L/3.846*10^26))
    2.63026799e-14 X (3.864*10e26) = 2.38139604e-16
    1.01633555e14/2.38139604e-16 = 4.26781406e29 joules

    Beta Horologii is 295 lightyears (2.791e+18m) away from the Earth and has an apparent magnitude of 4.979.

    (146000000000/(2.791e+18))^2) = 2.73644068e-15
    4.979 - -26.73 = 2.73644068e-15/((L/3.846*10^26)
    31.70900 = -2.5Log(2.73644068e-15/((L/3.846*10^26))
    31.70900/-2.5 = (2.73644068e-15/((L/3.846*10^26))
    10^(-12.6836) = (2.73644068e-15/((L/3.846*10^26))
    2.0720489e-13 = (2.73644068e-15/((L/3.846*10^26))
    2.0720489e-13 X (3.864*10e26) = 2.73644068e-15
    8.00639695e14/2.73644068e-15 = 2.92584342e29 joules

    Mu Horologii is 141.6 lightyears (1.33964e+18m) from the Sun and has an apparent magnitude of 5.11.

    (146000000000/(1.33964e+18))^2) = 1.1877622e-14
    5.11 - -26.73 = 1.1877622e-14/((L/3.846*10^26)
    31.84 = -2.5Log(1.1877622e-14/((L/3.846*10^26))
    31.84/-2.5 = (1.1877622e-14/((L/3.846*10^26))
    10^(-12.73600) = (1.1877622e-14/((L/3.846*10^26))
    1.83653834e-13 = (1.1877622e-14/((L/3.846*10^26))
    1.83653834e-13 X (3.864*10e26) = 1.1877622e-14
    8.00639695e14/1.1877622e-14 = 6.74074065e28 joules

    Zeta Horologii is 160 lightyears (1.514e+18m) away from the Sun and has an apparent magnitude of 5.20.

    (146000000000/(1.514e+18))^2) = 1.1877622e-14
    5.20 - -26.73 = 9.29937929e-15/((L/3.846*10^26)
    31.93 = -2.5Log(9.29937929e-15/((L/3.846*10^26))
    31.93/-2.5 = (9.29937929e-15/((L/3.846*10^26))
    10^(-12.77200) = (9.29937929e-15/((L/3.846*10^26))
    1.69044093e-13 = (9.29937929e-15/((L/3.846*10^26))
    1.69044093e-13 X (3.864*10e26) = 9.29937929e-15
    6.53186375e14/9.29937929e-15 = 7.02397821e28 joules

    Eta Horologii is 149 lightyears (1.41e+18m) away from the Earth and has an apparent magnitude of 5.31.

    (146000000000/(1.41e+18))^2) = 1.07217947e-14
    5.31 - -26.73 = 1.07217947e-14/((L/3.846*10^26)
    32.04 = -2.5Log(1.07217947e-14/((L/3.846*10^26))
    32.04/-2.5 = (1.07217947e-14/((L/3.846*10^26))
    10^(-12.81600) = (1.07217947e-14/((L/3.846*10^26))
    1.52756606e-13 = (1.07217947e-14/((L/3.846*10^26))
    1.52756606e-13 X (3.864*10e26) = 1.07217947e-14
    5.90251526e14/1.07217947e-14 = 5.50515602e28 joules

    Iota Horologii is 56 lightyears (5.298e+17) away and has an apparent magnitude of 5.40.

    (146000000000/(5.298e+17))^2) = 1.07217947e-14
    5.40 - -26.73 = 1.07217947e-14/((L/3.846*10^26)
    32.13 = -2.5Log(1.07217947e-14/((L/3.846*10^26))
    32.13/-2.5 = (1.07217947e-14/((L/3.846*10^26))
    10^(-12.85200) = (1.07217947e-14/((L/3.846*10^26))
    1.40604752e-13 = (1.07217947e-14/((L/3.846*10^26))
    1.40604752e-13 X (3.864*10e26) = 1.07217947e-14
    5.43296762e14/1.07217947e-14 = 5.06721848e28 joules

    Finally, to add all of them together!

    E = 1.33394702e29 + 3.52483329e28 + 4.26912214e28 + 2.40986241e31 + 4.02977562e29 + 8.17514234e30 + 6.26549708e31 + 1.29845424e29 + 4.26781406e29 + 2.92584342e29 + 6.74074065e28 + 7.02397821e28 + 5.50515602e28 + 5.06721848e28
    = 9.65299074e31 joules
    = 23.071201577437857821 zettatons


    Final results
    Timeloop causes stars to increase in luminousity (per second) = 23.071 zettatons


    The Time Demon broke this time loop, and the party defeated it (although the first time around it resurrected and the second time they needed the Talisman of Time) so this scales to everyone in base.
  6. So it turns out it's Legendary Defender, not Legacy Defender. How did I miss this? :defeatAnyway, on with the calcs.
    Spoiler:
    1. The Yalex destroys a moon
    Spoiler:


    Spoiler:


    The Yalex destroys a moon by awakening. Low end of with Saturns moon Mimas, which has a diameter of 396km, and a high end of Luna, which has a diameter of 3476.2km.

    (Low end)
    396km/2 = 198km (198000m)
    890 pixels = 396km (396000m)
    1 pixel = 396000m/890 = 444.94382m
    444.94382m X 67 = 29811.2359m

    Volume as a sphere.

    V = 4/3πr^3
    = 4/3 X π X 198000^3
    = 3.25150316e16m^3

    R = 198000m - 29811.2359m
    = 168188.764m

    V = 4/3πr^3
    = 4/3 X π X 168188.764^3
    = 1.99287265e16m^3

    V = 3.25150316e16 - 1.99287265e16
    = 1.25863051e16m^3

    Violent fragmentation of rock is 69000000 joules. It's a hemisphere, so we'll also half it.

    E = 1.25863051e16 X 69000000
    = 8.68455052e23/2
    = 4.34227526e23 joules
    = 103.782869503 teratons

    (High end)
    3476.2km/2 = 1738.1km (1738100m)
    890 pixels = 3476.2km (3476200m)
    1 pixel = 3476200m/890 = 3905.8427m
    3905.8427m X 67 = 261691.461m

    V = 4/3πr^3
    = 4/3 X π X 1738100^3
    = 2.19944389e19m^3

    V = 1738100 - 261691.461
    = 1476408.54m

    V = 4/3πr^3
    = 4/3 X π X 1476408.54^3
    = 1.348057e19m^3

    V = 2.19944389e19 - 1.348057e19
    = 8.5138689e18m^3

    E = 8.5138689e18 X 69000000
    = 5.87456954e26/2
    = 2.93728477e26 joules
    = 70.20279087 petatons

    Next up, let's find the surface area each member of Voltron tanked on the planets surface. Pidge is the smallest there, so anyone else would have tanked even more. Pidge is 15, and the average mass of a 15 year old girl is is 52.1kg and their height is 159.7cm (1.597m). Enter those values into this calculator here and we have a surface area of 1.53m^2. Well find our energy with inverse square law. We need the surface area of the moon (halved, because only half of it was destroyed as far as we saw).

    (Low end)
    A = 4πr^2
    = 4 X π X 198000^2
    = 4.92651994e11/2
    = 246325997000m^2

    1.597/246325997000
    = 6.48327834e-12 X 4.34227526e23
    = 2.81521791e12 joules
    = 672.853228967 tons of TNT

    (High end)
    A = 4πr^2
    = 4 X π X 1738100^2
    = 3.79629002e13/2
    = 1.89814501e13m^2

    1.597/1.89814501e13
    = 8.41347732e-14 X 2.93728477e26
    = 2.47127788e13 joules
    = 5.9064958891 kilotons

    2. Zarkon destroys Altea
    Spoiler:






    Zarkon destroys Altea, quite impressively too. Assuming Altea is Earth-sized, which means a mass of 5.97219e24kg and a diameter of 12756.2km.

    83 pixels = 12756.2km
    1 pixel = 12756.2km/83 = 153.689157km

    1106 X 153.689157km = 169980.208km

    Now for the timeframe.
    Spoiler:


    2 seconds

    T = 169980.208km/2s
    = 84990104m/s

    KE = (0.5) X 5.97219e24 X 84990104^2
    = 2.15695131e40 joules
    = 5.1552353566 tenatons


    Final Results
    Yalex destroys a moon (low end) = 103.783 teratons
    Yalex destroys a moon (high end) = 70.203 petatons
    Pidge survives moons destruction (low end) = 672.853 tons of TNT
    Pidge survives moons destruction (high end) = 5.906 kilotons
    Zarkon destroys Altea = 5.155 tenatons
  7. Calc request for @Unlosing Ranger .

    5:46
    Spoiler:


    Musashi's sacrifice creates a huge explosion, which turns everything around to dust. Scaling from the sphere when it reaches cloud height and pushes the clouds back. Going with stratocumulus clouds, which float around 2000m up.

    174 pixels = 2000m
    2000m/174 = 11.4942529m
    11.4942529m X 363 = 4172.4138m

    Volume as a sphere.

    V = 4/3πr^3
    = 4/3 X π X 4172.4138^3
    = 3.04264111e11m^3

    It turns everything to dust, so a low end of pulverization, high end of vaporization. Pulverization of rock is 200000000 joules/m^3 and vaporization is 27050000000 joules/m/3.

    (Low end)
    E = 3.04264111e11 X 200000000
    = 6.08528222e19 joules
    = 14.544173566 gigatons

    (High end)
    E = 3.04264111e11 X 27050000000
    = 8.2303442e21 joules
    = 1.96709947419 teratons

    Final Results
    Musashi's Sacrifice (low end) = 14.544 gigatons
    Musashi's Sacrifice (high end) = 1.967 teratons

    Not sure if I did that quite right, but there you go.
  8. But still, they come.
    The Martians cylinders fly towards the Earth at several thousand miles a minute, and backs this up by confirming that the missiles are traversing many miles a second. It says miles (as in plural), so that should be at least 2000 miles, or 3218.688km.

    T = 3218.688km/60s
    = 53644.8/340.29
    = Mach 157.644362

    Let's also get KE. The thickness and diameter is given to us.
    30 yards (27.43200m) across and 2 feet (60.96cm, or 0.6096m) thick. Volume, obviously, as a cylinder. Assuming at least the same height as diameter (which would make sense).

    R = 27.43200m/2
    = 13.71600m

    V = πr^2h
    = π X 13.71600^2 X 27.43200
    = 16212.9595m^3

    R = 13.71600m - 0.6096m
    = 13.1064m

    V = πr^2h
    = π X 13.1064^2 X 27.43200
    = 14803.8331m^3

    V = 16212.9595 - 14803.8331
    = 1409.1264m^3

    The tripods are described as being made as some kind of aluminium...
    ...So I'll go with the same for the cylinders too. Aluminium weighs 2600kg/m^3.

    M = 1409.1264 X 2600
    = 3663728.64kg

    KE = (0.5) X 3663728.64 X 53644.8^2
    = 5.27167423e15 joules
    = 1.25996038002 megatons

    Final Results
    The Martian Cylinders traverse space = Mach 157.644
    Martian's launch cylinders = 1.26 megatons
  9. Having rewatched the 2005 War of the Worlds, I noticed several feats that put the tripods at much stronger than originally thought.

    2:50


    3:08

    The capsulet he aliens ride down on the storm buries into the ground and into the tripod at incredibly fast speeds, riding the lightning down. We can scale off the nearby sign. This website here says that Do Not Enter signs (which appears to be the one seen) are 750 X 750 mm in size (0.75m).
    Spoiler:


    49 pixels = 0.75m
    1 pixel = 0.75m/49 = 0.0153061224m
    0.0153061224m X 194 = 2.96938775m
    0.0153061224m X 33 = 0.505102039m
    0.0153061224m X 67 = 1.0255102m

    Volume as two rectangular pyramids.
    V = lwh/3
    = 0.505102039 X 0.505102039 X 2.96938775/3
    = 0.252524722m^3

    V = lwh/3
    = 0.505102039 X 0.505102039 X 1.0255102/3
    = 0.087212146m^3

    V = 0.252524722 + 0.087212146
    = 0.339736868m^3

    Assuming a thickness of 1cm (0.01m).

    W = 0.505102039m - 0.01m
    = 0.495102039m

    H = 2.96938775m - 0.01m
    = 2.95938775m

    H = 1.0255102m - 0.01m
    = 1.0155102m

    V = lwh/3
    = 0.495102039 X 0.495102039 X 2.95938775/3
    = 0.241807656m^3

    V = lwh/3
    = 0.495102039 X 0.495102039 X 1.0155102/3
    = 0.0829759943m^3

    V = 0.241807656 + 0.0829759943
    = 0.32478365

    V = 0.339736868 - 0.32478365
    = 0.014953218m^3

    Going with a mid end of titanium, which weighs 4500 kg/m.

    M = 0.014953218 X 4500
    = 67.289481kg

    Air to ground lightning travels at 320,000 ft per second, which translates to 97536m/s.

    KE = (0.5) X 67.289481 X 97536^2
    = 3.20071544e11 joules
    = 76.4989349904398 tons of TNT

    Final Results
    Capsule rides the lightning = 76.499 tons of TNT


    This would scale to the tripods themselves, as they withstand the capsules ramming into them at these speeds (through ground too).
  10. There are various great feats from Scarlet Traces: The Great Game, a sequel to War of the Worlds. Several of which are calcable.
    Spoiler:
    1. Lunar Accelerator

    The speed is 23473 miles a second, or 37776131.7m/s.

    T = 37776131.7/299792458 X 100
    = 12.6007612% C

    This Accelerator later gets commandeered by the Martians, who use it to lob locomotive-sized chunks of moon at England.
    Spoiler:


    He compares it to a Flying Scottsman, so we'll go with it's dimensions.
    Volume as a cylinder, with a radius of 1.98m.

    V = πr^2h
    = π X 1.98^2 X 21.34
    = 262.829839m^3

    The Moon has an average mass of 3344kg/m^3.

    M = 262.829839 X 3344
    = 878902.982kg

    Enter both those values through the relativistic kinetic energy calculator and we get 6.347E+20 joules, or 151.696940727 gigatons.

    2. Original War on Mars

    Spoiler:


    The original war on Mars that killed the real Martians was so devastating that it ripped chunks of rocks from the planet to crash into Earth, wiping out the dinosaurs. Escape velocity of Mars is 5.03km/s (5030m/s). The meteorite that wiped out the dinosaurs was 15km across (15,000m, or a radius of 7500m). Volume of the meteorite as a sphere. Also, look at the surface of Mars in that last frame, it'll be important later...

    V = 4/3πr^3
    = 4/3 X π X 7500^3
    = 1.76714587e12m^3

    Average mass of Mars is 3933kg/m^3.

    M = 1.76714587e12 X 3933
    = 6.95018471e15kg

    KE = (0.5) X 6.95018471e15 X 5030^2
    = 8.79229642e22 joules
    = 21.014092782 teratons

    3. Space Elevator Height
    Not an energy or speed calc, but for the range of the Martians Heat Rays.

    The British Empires space elevator over Mars extends far into orbit, and the Martians Heat Rays hit it.


    R = (h/2) + c^2/(8h)
    = (9/2) + 176^2/(8 X 9)
    = 434.722222

    Mars has a radius of 3389.5km.

    434.722222 pixels = 3389.5km
    1 pixel = 3389.5km/434.722222 = 7.79693291km
    7.79693291km X 528 = 4116.78058km

    4. Anti-Gravity gel rips apart Mars' surface
    Spoiler:



    The British Empire spraying an anti-gravity gel over the entire surface, killing all of the Martians and any remaining soldiers on the planet.


    R = (h/2) + c^2/(8h)
    = (4/2) + 334^2/(8 X 4)
    = 3488.125

    3488.125 pixels = 3389.5km
    1 pixel = 3389.5km/3488.125 = 0.971725497km
    0.971725497km X 4 = 3.88690199km

    Now to find the area ripped apart (3389.5km is equal to 3389500m).

    V = 4/3πr^3
    = 4/3 X π X 3389500^3
    = 1.6311561e20m^3

    R = 3389.5km - 3.88690199km
    = 3385.6131km (3385613.1m)

    V = 4/3πr^3
    = 4/3 X π X 3385613.1^3
    = 1.62555096e20m^3

    V = 1.6311561e20 - 1.62555096e20
    = 5.60514e17m^3

    Fragmentation of rock is 8000000 joules per m^3.

    E = 5.60514e17 X 8000000
    = 4.484112e24 joules
    = 1.072 petatons

    Final Results
    Lunar Accelerator = 12.601% C
    Lunar Accelerator bombards England = 151.697 gigatons.
    Original Martian War devastates Mars = 21.0141 teratons
    Heat Ray range = 4116.781km
    Anti-Gravity gel destroys Mars' surface = 1.072 petatons
  11. Misc Disgaea calcs for @Unlosing Ranger .
    Spoiler:
    1. Galaxy Comet

    4:36

    The Galaxy Comet attack involves sucking up three galaxies to turn into an arrow to fire back at the target. Looking at Endless Mikes Thanos blackhole calc for help. The nearest major galaxy to the Milky Way is the Andromeda galaxy (2,537,000 lightyears away, or 2.4001873e+22m, which has a diameter of 220,000 light years (2.081361e+21m).

    = 2*atan(353/(324/tan(70/2)))
    = 0.953084914 rad
    = 54.6077430899244831degrees

    Through the angscaler, the galaxy is 2.0159e+21m away (there are further ones, but this should serve for now). Now to find the size of the schwarzchild radius (solving for mass).

    Multiply the distance from the speed of light squared, then divide it by two, then divide it the gravitational constant (6.674 X 10^−11), then find the mass energy.

    M = 2.0159e+21 X 299792458^2
    = 1.81180056e38/2
    = 9.0590028e37/(6.674 X 10^−11)
    = 1.35735733e48kg

    E = 1.35735733e48 X 299792458^2
    = 1.21993193e65/10^44
    = 1.21093193 ZETTAFOE

    Now for the speed with which the Archer flies out and the arrow flies back. The Milky Way has a diameter of 100,000 lightyears (9.46073e+20m).

    = 2*atan(410/(337/tan(70/2)))
    = 1.04584834 rad
    = 59.922695892911804 degrees

    Through the angscaler, the Milky Way is 8.2060e+20m away.

    Spoiler:


    1.62 seconds.

    T = 8.2060e+20m/1.62s
    = 5.0654321e20/299792458
    = 1689646280000 C

    Let's also get the speed of the Archer.
    Spoiler:


    2.3 seconds.

    T = 8.2060e+20m/2.3s
    = 3.56782609e20/299792458
    = 1190098680000 C

    2. Omega Star

    1:11

    The Omega Star involves zooming out to the Earth, then a universe-sized Earth, which gets punched apart by a giant robot. First, the speed of the robots punches. Diameter of the observable universe is 92,000,000,000 lightyears (8.70387203477e+26m).

    127 pixels = 8.70387203477e+26m
    8.70387203477e+26m/2 = 4.35193602e26m
    1 pixel = 8.70387203477e+26m/127 = 6.85344255e24m
    6.85344255e24m X 144 = 9.86895727e26m

    0.07 seconds.

    T = 9.86895727e26m/0.07s
    = 1.40985104e28/299792458
    = 47027568700000000000 C

    Now for the energy. The giant planet at the end appears to be disintergrated. Vaporization of rock is 27050000000 joules/m^3. First the volume of the giant planet (obviously as a sphere).

    V = 4/3πr^3
    = 4/3 X π X 4.35193602e26^3
    = 3.4525193e80m^3

    E = 3.4525193e80 X 27050000000
    = 9.33906471e90/10^44
    = 93.3906471 TENAPETTAFOE


    Final Results
    Galaxy Comet (energy) = >1.211 ZETTAFOE
    Galaxy Comet (speed) = 1689646280000 C
    Archer flies outside the galaxy = 1190098680000 C
    Omega Star (speed) = >47027568700000000000 C
    Omega Star (energy) = 93.391 TENAPETTAFOE

  12. 3:50
    Spoiler:


    Spoiler:



    Luluco fires Alpha Omega Nova at the Blackhole criminal, banishing both from the Universe and creating a huge love-heart shaped explosion. According to this article here, the area of a love heart is A = (π+4)r^2 (basically, 2 semi-circles and a square), then ltimes it by height for the volume. Assuming the planet is Earth-sized (12756.2km in diameter)...

    122 pixels = 12756.2km
    1 pixel = 12756.2km/122 = 104.559016km
    104.559016km X 208 = 21748.2753km (21748275.3m)
    104.559016km X 68 = 7110.01309km (7110013.09m)
    104.559016km X 337 = 35236.3884km (35236388.4m)
    104.559016km X 64 = 6691.77702km (6691777.02m)
    6691777.02m + 21748275.3m = 28440052.3m

    A = (π+4)r^2
    = (π + 4) X 28440052.3^2
    = 5.77638134e15m^2

    V = 5.77638134e15 X 21748275.3
    = 1.25626332e23m^3

    A = (π+4)r^2
    = (π + 4) X 21748275.3^2
    = 3.3778839e15m^3

    V = 3.3778839e15 X 21748275.3
    = 7.3463149e22m^3

    V = 1.25626332e23 - 7.3463149e22
    = 5.2163183e22m^3

    At the absolute minimum, the debris would weigh as much as dust or air (1.003kg/m^3).

    M = 5.2163183e22 X 1.003
    = 5.23196725e22kg

    Let's get our timeframe.
    Spoiler:


    4 seconds.

    T = 35236.3884km/4s
    = 8809097.1/340.29
    = Mach 25887.029

    KE = (0.5) X 5.23196725e22 X 8809097.1^2
    = 2.03000831e36 joules
    = 485.183630497 yottatons

    Now let's go for a high end for destroying the blackhole. Luluco is 13, and the average height of a Japanese 13 year old girl is 153.6cm (1.536m).

    76 pixels = 1.536m
    1 pixel = 1.536m/76 = 0.0202105263m
    0.0202105263m X 32 = 0.646736842m
    0.646736842m/2 = 0.323368421m

    Enter that radius through the schwarzschild calculator, and we get a mass of 2.1793916177427146 X 10^26kg (2.17939162e26kg). As it got blown apart, we'll go for KE again.

    KE = (0.5) X 2.17939162e26 X 8809097.1^2
    = 8.45606038e39 joules
    = 2.02104693595 tenatons

    Final Results
    Luluco's love gun (low end) = 485.183 yottatons
    Luluco's love gun (high end) = 2.0210 tenatons
    Luluco's love gun explosion = Mach 25887.029

  13. 4:45

    Luluco blows up a large meteorite, which she survives the explosion of (and so does her mother). Luluco is in the top part.

    A space shuttle is 184 feet (56.0832m) tall.

    491 pixels = 56.0832m
    1 pixel = 56.0832m/491 = 0.114222403m
    0.114222403m X 132 = 15.0773572m
    0.114222403m X 87 = 9.93734906m


    R = (h/2) + c^2/(8h)
    = (63/2) + 1185^2/(8 X 63)
    = 2817.66071

    For the diameter, times that by 2.

    D = 2817.66071 X 2
    = 5635.32142

    101 pixels = 9.93734906m
    1 pixel = 9.93734906m/101 = 0.0983895947m
    0.0983895947m X 2817.66071 = 277.228495m
    0.0983895947m X 5635.32142 = 554.456991m

    Volume as a sphere.

    V = 4/3πr^3
    = 4/3 X π X 277.228495^3
    = 89248764.2m^3

    It gets reduced to dust, so I'd say that's pulverization. Pulverization of rock is 200000000 joules/m^3.

    E = 89248764.2 X 200000000
    = 1.78497528e16 joules

    Now for the kinetic energy. Looking at this asteroid chart chart, the smallest asteroid there (Bennu) has a diameter of 250 m and a mass of 0.00014 X 10^15kg (140000000000kg). That's about half the size of this asteroid, so we'll times that by two for our mass (140000000000kg X 2 = 280000000000kg).

    158 pixels = 554.456991m
    1 pixel = 554.456991m/158 = 3.50922146m
    3.50922146m X 1280 = 4491.80347m
    Spoiler:


    4 seconds.

    T = 4491.80347m/4s
    = 1122.95087m/s

    KE = (0.5) X 280000000000 X 1122.95087^2
    = 1.76542612e17 joules

    Now, we'll add both results together for our final result.

    E = 1.78497528e16 + 1.76542612e17
    = 1.94392365e17 joules
    = 46.4608902964 megaton

    Final Results
    Luluco blows up asteroid = 46.461 megatons
  14. A feat pointed out in the MCU feat thread all the way back from Avengers 1. They calced it, though they used some assumptions, so I'll try scaling.
    It takes heating the Tesseract to 120,000,000 kelvin just to break through the coulomb barrier. We'll scale off Red Skull (played by Hugo Weaving), who held the Tesseract. A quick search reveals that Hugo Weaving is 1.88m tall.

    550 pixels = 1.88m
    1 pixel = 1.88m/550 = 0.00341818182m
    0.00341818182m X 78 = 0.266618182m

    154 pixels = 0.266618182m
    1 pixel = 0.266618182m/154 = 0.0017312869m
    0.0017312869m X 74 = 0.128115231m

    Next for the surface area of a cube.

    A = 6a^2
    = 6 X 0.128115231^2
    = 0.0984810745m^2

    Entering that value through this calculator here (with an exposure of 1) we get a result of 1.1578727189917E+24 watts/joules per second, or 276.738221556 teratons.

    Final Results
    The Tesseracts durability = 276.738 teratons
  15. Calc request for @NightmareCinema .

    20:18
    Spoiler:


    Cutie Honey cuts the Moon in half with a single slice. The Moon is 3474.8km in diameter and weighs 7.34767309e22kg.

    347 pixels = 3474.8km
    1 pixel = 3474.8km/347 = 10.0138329km
    10.0138329km X 36 = 360.497984km

    Next the timeframe.
    Spoiler:


    0.32 seconds.

    T = 360.497984km/0.32s
    = 1126556.2m/s

    KE = (0.5) X 7.34767309e22 X 1126556.2^2
    = 4.66257203e34 joules
    = 11.1438146033 yottatons

    Let's also get the speed with which Cutie's strike crosses space and reaches the Moon. The Moon is 384,400 km from the Earth.
    Spoiler:


    0.2 seconds.

    T = 384,400km/0.2s
    = 1922000000/299792458
    = 6.41110191 C

    Final Results
    Cutie Honey cuts the Moon in half (energy) = 11.144 yottatons
    Cutie Honey cuts the Moon in half (speed) = 6.411 C
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