User:Asmendel/Sandbox

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Also, I think that Peukert's law shouldn't be referenced in Energy density.Asmendel (talk)

Asmendel (talk) 23:47, 17 December 2007 (UTC)

I'm going to try to spiffify the Energy density page's main table.[edit]

storage type energy density recovery efficiency
by mass by volume peak practical
MJ/kg MJ/L % %
**mass-energy equivalence 89,876,000,000
**binding energy of helium nucleus 675,000,000 8.57x1024
nuclear fusion of hydrogen (energy from the sun) 300,000,000 423,000,000
nuclear fission (of U-235) (Used in Nuclear Power Plants) 77,000,000 1,500,000,000 30% 50%
**liquid hydrogen 143 10.1
**compressed gaseous hydrogen at 700 bar[1] 143 4.7
**gaseous hydrogen at room temperature[citation needed] 143 0.01079
beryllium (toxic) (burned in air) 67.6 125.1
lithium borohydride (burned in air) 65.2 43.4
boron [2] (burned in air) 58.9 137.8
compressed natural gas at 200 bar 53.6[3] 10
gasoline[4] 46.9 34.6
diesel fuel/residential heating oil[5] 45.8 38.7
polyethylene plastic 46.3[6] 42.6
polypropylene plastic 46.3[7] 41.7
gasohol (10% ethanol 90% gasoline) 43.54 28.06
lithium (burned in air) 43.1 23.0
Jet A aviation fuel[8] 42.8 33
biodiesel oil (vegetable oil) 42.20 30.53
DMF (2,5-dimethylfuran) 42[9] 37.8
crude oil (according to the definition of ton of oil equivalent) 41.87 37[10]
polystyrene plastic 41.4[11] 43.5
body fat metabolism 38 35 22-26%[12]
butanol 36.6 29.2
LPG 34.39 22.16
**specific orbital energy of Low Earth orbit 33 (approx.)
graphite (burned in air) 32.7 72.9
anthracite coal 32.5 72.4 36%
silicon (burned in air)[13] 32.2 75.1
aluminum (burned in air) 31.0 83.8
ethanol 30 24
polyester plastic 26.0[14] 35.6
magnesium (burned in air) 24.7 43.0
bituminous coal [15] 24 20
PET pop bottle plastic ?23.5 impure ?
methanol 19.7 15.6
**hydrazine (toxic) combusted to N2+H2O 19.5 19.3
**liquid ammonia (combusted to N2+H2O) 18.6 11.5
PVC plastic (improper combustion toxic) 18.0[16] 25.2
sugars, carbohydrates & proteins metabolism 17 26.2(dextrose) 22-26% [17]
Cl2O7 + CH4 - computed 17.4
lignite coal 14-19
calcium (burned in air) 15.9 24.6
dry cowdung and cameldung 15.5[18]
wood 6–17[19] 1.8–3.2
**liquid hydrogen + oxygen (as oxidizer) (1:8 (w/w), 14.1:7.0 (v/v)) 13.333 5.7
sodium (burned to wet sodium hydroxide) 13.3 12.8
Cl2O7 decomposition - computed 12.2
nitromethane 11.3 12.9
household waste 8-11[20][21]
sodium (burned to dry sodium oxide) 9.1 8.8
iron (burned to iron(III) oxide) 7.4 57.9
Octanitrocubane explosive - computed 7.4
ammonal (Al+NH4NO3 oxidizer) 6.9 12.7
Tetranitromethane + hydrazine explosive - computed 6.6
Hexanitrobenzene explosive - computed 6.5
zinc (burned in air) 5.3 38.0
Teflon plastic (combustion toxic, but flame retardant) 5.1 11.2
iron (burned to iron(II) oxide) 4.9 38.2
**TNT 4.184 6.92
Copper Thermite (Al + CuO as oxidizer) 4.13 20.9
Thermite (powder Al + Fe2O3 as oxidizer) 4.00 [22] 18.4
**compressed air at 300 bar 4 0.14 ?
ANFO 3.88
hydrogen peroxide decomposition (as monopropellant) 2.7 3.8
Lithium Thionyl Chloride Battery 2.5
Regenerative Fuel Cell (fuel cell with internal Hydrogen reservoir used much as a battery) 1.62[23]
**hydrazine(toxic) decomposition (as monopropellant) 1.6 1.6
**ammonium nitrate decomposition (as monopropellant) 1.4 2.5
Molecular spring ~1
**sodium-sulfur battery ? 1.23[24] ? 85%[25]
**liquid nitrogen 0.77[1] 0.62
**lithium ion battery 0.54–0.72 0.9–1.9 95%[26]
**lithium sulphur battery 0.54-1.44 ?
kinetic energy penetrator 1.9-3.4 30-54
5.56 × 45 mm NATO bullet 0.4-0.8 3.2-6.4
**Zn-air batteries 0.40 to 0.72 ? ? ?
**flywheel 0.5 ? ? 81-94%[www.ccm.nl]
melting ice 0.335 0.335
**zinc-bromine flow battery 0.27–0.306[27]
**compressed air at 20 bar 0.27 ? 64%[28]
**NiMH Battery 0.22[29] 0.36 ? 60% [30]
**NiCd Battery 0.14-0.22 ? ? 80% [31]
**lead acid battery 0.09–0.11[32] 0.14–0.17 ? 75-85%[33]
**commercial lead acid battery pack 0.072-0.079[34] ? ? ?
**vanadium redox battery .09[35] .1188 ? 70-75%
**vanadium bromide redox battery .18[36] .252 ? 81%
**ultracapacitor 0.0206 [37] ? ? ?
**ultracapacitor by EEStor (claimed capacity) 1.0 [38] ? ? ?
**supercapacitor 0.01 ? 98.5% 90%[39]
**capacitor 0.002 [40] ? ? ?
water at 100 m dam height 0.001 0.001 ? 85-90%[41]
**spring power (clock spring), torsion spring 0.0003[42] 0.0006 ?
zero point energy 0 0
  1. ^ C. Knowlen, A.T. Mattick, A.P. Bruckner and A. Hertzberg, "High Efficiency Conversion Systems for Liquid Nitrogen Automobiles", Society of Automotive Engineers Inc, 1988.