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superconducting point of rare earth metals

Input interpretation

rare earth metals | superconducting point
rare earth metals | superconducting point

Summary

median | 0.7 K highest | 4.88 K (lanthanum) lowest | 0.022 K (cerium) distribution | | (based on 6 values; 11 unavailable)
median | 0.7 K highest | 4.88 K (lanthanum) lowest | 0.022 K (cerium) distribution | | (based on 6 values; 11 unavailable)

Entities with missing values

praseodymium | neodymium | promethium | samarium | gadolinium | terbium | dysprosium | holmium | erbium | thulium | ytterbium (total: 11)
praseodymium | neodymium | promethium | samarium | gadolinium | terbium | dysprosium | holmium | erbium | thulium | ytterbium (total: 11)

Superconducting point rankings

1 | cerium | 0.022 K 2 | scandium | 0.05 K 3 | lutetium | 0.1 K 4 | yttrium | 1.3 K 5 | europium | 1.8 K 6 | lanthanum | 4.88 K (based on 6 values; 11 unavailable)
1 | cerium | 0.022 K 2 | scandium | 0.05 K 3 | lutetium | 0.1 K 4 | yttrium | 1.3 K 5 | europium | 1.8 K 6 | lanthanum | 4.88 K (based on 6 values; 11 unavailable)

Unit conversions for median superconducting point 0.7 K

-272.45 °C (degrees Celsius)
-272.45 °C (degrees Celsius)
-458.4 °F (degrees Fahrenheit)
-458.4 °F (degrees Fahrenheit)
1.3 °R (degrees Rankine)
1.3 °R (degrees Rankine)
-217.96 °Ré (degrees Réaumur)
-217.96 °Ré (degrees Réaumur)
-135.54 °Rø (degrees Rømer)
-135.54 °Rø (degrees Rømer)

Comparison for median superconducting point 0.7 K

0.7 K above temperature of a typical evaporation-cooled Bose-Einstein condensate (7×10^-8 K)
0.7 K above temperature of a typical evaporation-cooled Bose-Einstein condensate (7×10^-8 K)
0.7 K above lowest temperature sodium Bose-Einstein condensate gas ever achieved in the laboratory (at MIT) (450 pK)
0.7 K above lowest temperature sodium Bose-Einstein condensate gas ever achieved in the laboratory (at MIT) (450 pK)
0.7 K above absolute zero (0 K)
0.7 K above absolute zero (0 K)

Corresponding quantity

Thermodynamic energy E from E = kT:  | 0.06 meV (millielectronvolts)
Thermodynamic energy E from E = kT: | 0.06 meV (millielectronvolts)