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molar mass of Arrhenius acids

Input interpretation

Arrhenius acids | molar mass
Arrhenius acids | molar mass

Summary

median | 61.532 g/mol highest | 120.1 g/mol (sodium bisulfate) lowest | 20.006 g/mol (hydrofluoric acid) distribution |
median | 61.532 g/mol highest | 120.1 g/mol (sodium bisulfate) lowest | 20.006 g/mol (hydrofluoric acid) distribution |

Units

Distribution plots

  (molar mass in grams per mole)
(molar mass in grams per mole)

Molar mass rankings

1 | hydrofluoric acid | 20.006 g/mol 2 | hydrogen cyanide | 27.026 g/mol 3 | hydrochloric acid | 36.46 g/mol 4 | carbon dioxide | 44.009 g/mol 5 | acetic acid | 60.052 g/mol 6 | nitric acid | 63.012 g/mol 7 | chloroacetic acid | 94.49 g/mol 8 | sulfuric acid | 98.07 g/mol 9 | perchloric acid | 100.5 g/mol 10 | sodium bisulfate | 120.1 g/mol
1 | hydrofluoric acid | 20.006 g/mol 2 | hydrogen cyanide | 27.026 g/mol 3 | hydrochloric acid | 36.46 g/mol 4 | carbon dioxide | 44.009 g/mol 5 | acetic acid | 60.052 g/mol 6 | nitric acid | 63.012 g/mol 7 | chloroacetic acid | 94.49 g/mol 8 | sulfuric acid | 98.07 g/mol 9 | perchloric acid | 100.5 g/mol 10 | sodium bisulfate | 120.1 g/mol

Unit conversion for median molar mass 61.532 g/mol

0.061532 kg/mol (kilograms per mole)
0.061532 kg/mol (kilograms per mole)

Comparisons for median molar mass 61.532 g/mol

 ≈ ( 0.085 ≈ 1/12 ) × molar mass of fullerene ( ≈ 721 g/mol )
≈ ( 0.085 ≈ 1/12 ) × molar mass of fullerene ( ≈ 721 g/mol )
 ≈ 0.32 × molar mass of caffeine ( ≈ 194 g/mol )
≈ 0.32 × molar mass of caffeine ( ≈ 194 g/mol )
 ≈ 1.1 × molar mass of sodium chloride ( ≈ 58 g/mol )
≈ 1.1 × molar mass of sodium chloride ( ≈ 58 g/mol )

Corresponding quantities

Mass of a molecule m from m = M/N_A:  | 1×10^-22 grams  | 1×10^-25 kg (kilograms)  | 62 u (unified atomic mass units)  | 62 Da (daltons)
Mass of a molecule m from m = M/N_A: | 1×10^-22 grams | 1×10^-25 kg (kilograms) | 62 u (unified atomic mass units) | 62 Da (daltons)
Relative molecular mass M_r from M_r = M_u/M:  | 62
Relative molecular mass M_r from M_r = M_u/M: | 62