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Néel point of d-block elements

Input interpretation

d-block elements | Néel point
d-block elements | Néel point

Néel point rankings

1 | manganese | 100 K 2 | chromium | 393 K (based on 2 values; 38 unavailable)
1 | manganese | 100 K 2 | chromium | 393 K (based on 2 values; 38 unavailable)

Unit conversions for median Néel point 246 K

-27 °C (degrees Celsius)
-27 °C (degrees Celsius)
-16 °F (degrees Fahrenheit)
-16 °F (degrees Fahrenheit)
444 °R (degrees Rankine)
444 °R (degrees Rankine)
-21 °Ré (degrees Réaumur)
-21 °Ré (degrees Réaumur)
-6 °Rø (degrees Rømer)
-6 °Rø (degrees Rømer)

Comparison for median Néel point 246 K

42 K below temperature at STP (standard temperature and pressure), using the convention of European and South American natural gas companies (15 °C)
42 K below temperature at STP (standard temperature and pressure), using the convention of European and South American natural gas companies (15 °C)
27 K below temperature at STP (standard temperature and pressure), using the International Union of Pure and Applied Chemistry convention (0 °C)
27 K below temperature at STP (standard temperature and pressure), using the International Union of Pure and Applied Chemistry convention (0 °C)
9 K below temperature of the ice/salt mixture defining the zero point of the Fahrenheit temperature scale (0 °F)
9 K below temperature of the ice/salt mixture defining the zero point of the Fahrenheit temperature scale (0 °F)

Corresponding quantities

Thermodynamic energy E from E = kT:  | 21 meV (millielectronvolts)
Thermodynamic energy E from E = kT: | 21 meV (millielectronvolts)
Blackbody energy flux Φ from Φ = σT^4:  | 209 W/m^2 (watts per square meter)
Blackbody energy flux Φ from Φ = σT^4: | 209 W/m^2 (watts per square meter)
Approximate luminous exitance from a planar blackbody radiator perpendicular to its surface:  | 1.5×10^-27 lx (lux)
Approximate luminous exitance from a planar blackbody radiator perpendicular to its surface: | 1.5×10^-27 lx (lux)

Thermodynamic properties

phase at STP | all | liquid | solid melting point | median | 1668 °C  | highest | 3422 °C (tungsten)  | lowest | -38.83 °C (mercury)  | distribution |  boiling point | median | 3374 °C  | highest | 5596 °C (rhenium)  | lowest | 356.73 °C (mercury)  | distribution |  molar heat of fusion | median | 20 kJ/mol  | highest | 36 kJ/mol (molybdenum and tantalum)  | lowest | 2.29 kJ/mol (mercury)  | distribution |  molar heat of vaporization | median | 420 kJ/mol  | highest | 800 kJ/mol (tungsten)  | lowest | 59.2 kJ/mol (mercury)  | distribution |  specific heat at STP | median | 240 J/(kg K)  | highest | 567 J/(kg K) (scandium)  | lowest | 63 J/(kg K) (technetium)  | distribution |  (properties at standard conditions)
phase at STP | all | liquid | solid melting point | median | 1668 °C | highest | 3422 °C (tungsten) | lowest | -38.83 °C (mercury) | distribution | boiling point | median | 3374 °C | highest | 5596 °C (rhenium) | lowest | 356.73 °C (mercury) | distribution | molar heat of fusion | median | 20 kJ/mol | highest | 36 kJ/mol (molybdenum and tantalum) | lowest | 2.29 kJ/mol (mercury) | distribution | molar heat of vaporization | median | 420 kJ/mol | highest | 800 kJ/mol (tungsten) | lowest | 59.2 kJ/mol (mercury) | distribution | specific heat at STP | median | 240 J/(kg K) | highest | 567 J/(kg K) (scandium) | lowest | 63 J/(kg K) (technetium) | distribution | (properties at standard conditions)