Helium – Electron Affinity

Periodic Table of Elements - electron affinity
1
H

Hydrogen

72.8 kJ/mol

2
He

Helium

0 kJ/mol

3
Li

Lithium

59.6 kJ/mol

4
Be

Beryllium

0 kJ/mol

5
B

Boron

26.7 kJ/mol

6
C

Carbon

153.9 kJ/mol

7
N

Nitrogen

7 kJ/mol

8
O

Oxygen

141 kJ/mol

9
F

Fluorine

328 kJ/mol

10
Ne

Neon

0 kJ/mol

11
Na

Sodium

52.8 kJ/mol

12
Mg

Magnesium

0 kJ/mol

13
Al

Aluminium

42.5 kJ/mol

14
Si

Silicon

133.6 kJ/mol

15
P

Phosphorus

72 kJ/mol

16
S

Sulfur

200 kJ/mol

17
Cl

Chlorine

349 kJ/mol

18
Ar

Argon

0 kJ/mol

19
K

Potassium

48.4 kJ/mol

20
Ca

Calcium

2.4 kJ/mol

21
Sc

Scandium

18.1 kJ/mol

22
Ti

Titanium

7.6 kJ/mol

23
V

Vanadium

50.6 kJ/mol

24
Cr

Chromium

64.3 kJ/mol

25
Mn

Manganese

0 kJ/mol

26
Fe

Iron

15.7 kJ/mol

27
Co

Cobalt

63.7 kJ/mol

28
Ni

Nickel

112 kJ/mol

29
Cu

Copper

118.4 kJ/mol

30
Zn

Zinc

0 kJ/mol

31
Ga

Gallium

28.9 kJ/mol

32
Ge

Germanium

119 kJ/mol

33
As

Arsenic

78 kJ/mol

34
Se

Selenium

195 kJ/mol

35
Br

Bromine

324.6 kJ/mol

36
Kr

Krypton

0 kJ/mol

37
Rb

Rubidium

46.9 kJ/mol

38
Sr

Strontium

5 kJ/mol

39
Y

Yttrium

29.6 kJ/mol

40
Zr

Zirconium

41.1 kJ/mol

41
Nb

Niobium

86.1 kJ/mol

42
Mo

Molybdenum

71.9 kJ/mol

43
Tc

Technetium

53 kJ/mol

44
Ru

Ruthenium

101.3 kJ/mol

45
Rh

Rhodium

109.7 kJ/mol

46
Pd

Palladium

53.7 kJ/mol

47
Ag

Silver

125.6 kJ/mol

48
Cd

Cadmium

0 kJ/mol

49
In

Indium

28.9 kJ/mol

50
Sn

Tin

107.3 kJ/mol

51
Sb

Antimony

103.2 kJ/mol

52
Te

Tellurium

190.2 kJ/mol

53
I

Iodine

295.2 kJ/mol

54
Xe

Xenon

0 kJ/mol

55
Cs

Caesium

45.5 kJ/mol

56
Ba

Barium

13.9 kJ/mol

57-71

 

Lanthanoids

 

72
Hf

Hafnium

0 kJ/mol

73
Ta

Tantalum

31 kJ/mol

74
W

Tungsten

78.6 kJ/mol

75
Re

Rhenium

14.5 kJ/mol

76
Os

Osmium

106.1 kJ/mol

77
Ir

Iridium

151 kJ/mol

78
Pt

Platinum

205.3 kJ/mol

79
Au

Gold

222.8 kJ/mol

80
Hg

Mercury

0 kJ/mol

81
Tl

Thallium

19.2 kJ/mol

82
Pb

Lead

35.1 kJ/mol

83
Bi

Bismuth

91.2 kJ/mol

84
Po

Polonium

183.3 kJ/mol

85
At

Astatine

270.1 kJ/mol

86
Rn

Radon

0 kJ/mol

87
Fr

Francium

 

88
Ra

Radium

 

89-103

 

Actinoids

 

104
Rf

Rutherfordium

 

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

 

113
Nh

Nihonium

 

114
Fl

Flerovium

 

115
Mc

Moscovium

 

116
Lv

Livermorium

 

117
Ts

Tennessine

 

118
Og

Oganesson

 

57
La

Lanthanum

48 kJ/mol

58
Ce

Cerium

50 kJ/mol

59
Pr

Praseodymium

50 kJ/mol

60
Nd

Neodymium

50 kJ/mol

61
Pm

Promethium

50 kJ/mol

62
Sm

Samarium

50 kJ/mol

63
Eu

Europium

50 kJ/mol

64
Gd

Gadolinium

50 kJ/mol

65
Tb

Terbium

50 kJ/mol

66
Dy

Dysprosium

50 kJ/mol

67
Ho

Holmium

50 kJ/mol

68
Er

Erbium

50 kJ/mol

69
Th

Thulium

50 kJ/mol

70
Yb

Ytterbium

50 kJ/mol

71
Lu

Lutetium

50 kJ/mol

89
Ac

Actinium

 

90
Th

Thorium

 

91
Pa

Protactinium

 

92
U

Uranium

 

93
Np

Neptunium

 

94
Pu

Plutonium

 

95
Am

Americium

 

96
Cm

Curium

 

97
Bk

Berkelium

 

98
Cf

Californium

 

99
Es

Einsteinium

 

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Electron Affinity of Helium

Electron affinity of Helium is — kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e– → X– + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

An atom of Helium in the gas phase, for example, gives off energy when it gains an electron to form an ion of Helium.

He + e– → He–        – ∆H = Affinity = — kJ/mol

To use electron affinities properly, it is essential to keep track of sign. When an electron is added to a neutral atom, energy is released. This affinity is known as the first electron affinity and these energies are negative. By convention, the negative sign shows a release of energy. However, more energy is required to add an electron to a negative ion which overwhelms any the release of energy from the electron attachment process. This affinity is known as the second electron affinity and these energies are positive.

electron affinity - periodic tableElectron affinity can be either positive or negative value. The greater the negative value, the more stable the anion is. Although affinity varies greatly across the periodic table, some patterns emerge. Generally, the elements on the right side of the periodic table will have large negative electron affinity. The electron affinities will become less negative as you go from the top to the bottom of the periodic table. However, nitrogen, oxygen, and fluorine do not follow this trend. Moreover, nonmetals have more positive affinity than metals. Atoms whose anions are more stable than neutral atoms have a greater affinity. Chlorine most strongly attracts extra electrons, while neon most weakly attracts an extra electron.

Affinities of Non metals vs. Affinities of Metals

  • Metals: Metals like to lose valence electrons to form cations to have a fully stable shell. The electron affinity of metals is lower than that of nonmetals. Mercury most weakly attracts an extra electron.
  • Nonmetals: Generally, nonmetals have more positive electron affinity than metals. Nonmetals like to gain electrons to form anions to have a fully stable electron shell. Chlorine most strongly attracts extra electrons. The electron affinities of the noble gases have not been conclusively measured, so they may or may not have slightly negative values.

 

–

Hydrogen – Electron Affinity

Periodic Table of Elements - electron affinity
1
H

Hydrogen

72.8 kJ/mol

2
He

Helium

0 kJ/mol

3
Li

Lithium

59.6 kJ/mol

4
Be

Beryllium

0 kJ/mol

5
B

Boron

26.7 kJ/mol

6
C

Carbon

153.9 kJ/mol

7
N

Nitrogen

7 kJ/mol

8
O

Oxygen

141 kJ/mol

9
F

Fluorine

328 kJ/mol

10
Ne

Neon

0 kJ/mol

11
Na

Sodium

52.8 kJ/mol

12
Mg

Magnesium

0 kJ/mol

13
Al

Aluminium

42.5 kJ/mol

14
Si

Silicon

133.6 kJ/mol

15
P

Phosphorus

72 kJ/mol

16
S

Sulfur

200 kJ/mol

17
Cl

Chlorine

349 kJ/mol

18
Ar

Argon

0 kJ/mol

19
K

Potassium

48.4 kJ/mol

20
Ca

Calcium

2.4 kJ/mol

21
Sc

Scandium

18.1 kJ/mol

22
Ti

Titanium

7.6 kJ/mol

23
V

Vanadium

50.6 kJ/mol

24
Cr

Chromium

64.3 kJ/mol

25
Mn

Manganese

0 kJ/mol

26
Fe

Iron

15.7 kJ/mol

27
Co

Cobalt

63.7 kJ/mol

28
Ni

Nickel

112 kJ/mol

29
Cu

Copper

118.4 kJ/mol

30
Zn

Zinc

0 kJ/mol

31
Ga

Gallium

28.9 kJ/mol

32
Ge

Germanium

119 kJ/mol

33
As

Arsenic

78 kJ/mol

34
Se

Selenium

195 kJ/mol

35
Br

Bromine

324.6 kJ/mol

36
Kr

Krypton

0 kJ/mol

37
Rb

Rubidium

46.9 kJ/mol

38
Sr

Strontium

5 kJ/mol

39
Y

Yttrium

29.6 kJ/mol

40
Zr

Zirconium

41.1 kJ/mol

41
Nb

Niobium

86.1 kJ/mol

42
Mo

Molybdenum

71.9 kJ/mol

43
Tc

Technetium

53 kJ/mol

44
Ru

Ruthenium

101.3 kJ/mol

45
Rh

Rhodium

109.7 kJ/mol

46
Pd

Palladium

53.7 kJ/mol

47
Ag

Silver

125.6 kJ/mol

48
Cd

Cadmium

0 kJ/mol

49
In

Indium

28.9 kJ/mol

50
Sn

Tin

107.3 kJ/mol

51
Sb

Antimony

103.2 kJ/mol

52
Te

Tellurium

190.2 kJ/mol

53
I

Iodine

295.2 kJ/mol

54
Xe

Xenon

0 kJ/mol

55
Cs

Caesium

45.5 kJ/mol

56
Ba

Barium

13.9 kJ/mol

57-71

 

Lanthanoids

 

72
Hf

Hafnium

0 kJ/mol

73
Ta

Tantalum

31 kJ/mol

74
W

Tungsten

78.6 kJ/mol

75
Re

Rhenium

14.5 kJ/mol

76
Os

Osmium

106.1 kJ/mol

77
Ir

Iridium

151 kJ/mol

78
Pt

Platinum

205.3 kJ/mol

79
Au

Gold

222.8 kJ/mol

80
Hg

Mercury

0 kJ/mol

81
Tl

Thallium

19.2 kJ/mol

82
Pb

Lead

35.1 kJ/mol

83
Bi

Bismuth

91.2 kJ/mol

84
Po

Polonium

183.3 kJ/mol

85
At

Astatine

270.1 kJ/mol

86
Rn

Radon

0 kJ/mol

87
Fr

Francium

 

88
Ra

Radium

 

89-103

 

Actinoids

 

104
Rf

Rutherfordium

 

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

 

113
Nh

Nihonium

 

114
Fl

Flerovium

 

115
Mc

Moscovium

 

116
Lv

Livermorium

 

117
Ts

Tennessine

 

118
Og

Oganesson

 

57
La

Lanthanum

48 kJ/mol

58
Ce

Cerium

50 kJ/mol

59
Pr

Praseodymium

50 kJ/mol

60
Nd

Neodymium

50 kJ/mol

61
Pm

Promethium

50 kJ/mol

62
Sm

Samarium

50 kJ/mol

63
Eu

Europium

50 kJ/mol

64
Gd

Gadolinium

50 kJ/mol

65
Tb

Terbium

50 kJ/mol

66
Dy

Dysprosium

50 kJ/mol

67
Ho

Holmium

50 kJ/mol

68
Er

Erbium

50 kJ/mol

69
Th

Thulium

50 kJ/mol

70
Yb

Ytterbium

50 kJ/mol

71
Lu

Lutetium

50 kJ/mol

89
Ac

Actinium

 

90
Th

Thorium

 

91
Pa

Protactinium

 

92
U

Uranium

 

93
Np

Neptunium

 

94
Pu

Plutonium

 

95
Am

Americium

 

96
Cm

Curium

 

97
Bk

Berkelium

 

98
Cf

Californium

 

99
Es

Einsteinium

 

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Electron Affinity of Hydrogen

Electron affinity of Hydrogen is 72.8 kJ/mol.

In chemistry and atomic physics, the electron affinity of an atom or molecule is defined as:

the change in energy (in kJ/mole) of a neutral atom or molecule (in the gaseous phase) when an electron is added to the atom to form a negative ion.

X + e– → X– + energy        Affinity = – ∆H

In other words, it can be expressed as the neutral atom’s likelihood of gaining an electron. Note that, ionization energies measure the tendency of a neutral atom to resist the loss of electrons. Electron affinities are more difficult to measure than ionization energies.

An atom of Hydrogen in the gas phase, for example, gives off energy when it gains an electron to form an ion of Hydrogen.

H + e– → H–        – ∆H = Affinity = 72.8 kJ/mol

To use electron affinities properly, it is essential to keep track of sign. When an electron is added to a neutral atom, energy is released. This affinity is known as the first electron affinity and these energies are negative. By convention, the negative sign shows a release of energy. However, more energy is required to add an electron to a negative ion which overwhelms any the release of energy from the electron attachment process. This affinity is known as the second electron affinity and these energies are positive.

electron affinity - periodic tableElectron affinity can be either positive or negative value. The greater the negative value, the more stable the anion is. Although affinity varies greatly across the periodic table, some patterns emerge. Generally, the elements on the right side of the periodic table will have large negative electron affinity. The electron affinities will become less negative as you go from the top to the bottom of the periodic table. However, nitrogen, oxygen, and fluorine do not follow this trend. Moreover, nonmetals have more positive affinity than metals. Atoms whose anions are more stable than neutral atoms have a greater affinity. Chlorine most strongly attracts extra electrons, while neon most weakly attracts an extra electron.

Affinities of Non metals vs. Affinities of Metals

  • Metals: Metals like to lose valence electrons to form cations to have a fully stable shell. The electron affinity of metals is lower than that of nonmetals. Mercury most weakly attracts an extra electron.
  • Nonmetals: Generally, nonmetals have more positive electron affinity than metals. Nonmetals like to gain electrons to form anions to have a fully stable electron shell. Chlorine most strongly attracts extra electrons. The electron affinities of the noble gases have not been conclusively measured, so they may or may not have slightly negative values.

 

–

Oganesson – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Oganesson – Boiling Point

Boiling point of Oganesson is –°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

–

Tennessine – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Tennessine – Boiling Point

Boiling point of Tennessine is –°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

–

Livermorium – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Livermorium – Boiling Point

Boiling point of Livermorium is –°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

–

Moscovium – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Moscovium – Boiling Point

Boiling point of Moscovium is 1100°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

–

Flerovium – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Flerovium – Boiling Point

Boiling point of Flerovium is -60°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

–

Nihonium – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Nihonium – Boiling Point

Boiling point of Nihonium is 1130°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

–

Copernicium – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Copernicium – Boiling Point

Boiling point of Copernicium is –°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

–

Roentgenium – Boiling Point

Periodic Table of Elements - boiling point
1
H

Hydrogen

20.3 K

2
He

Helium

4.2 K

3
Li

Lithium

1603 K

4
Be

Beryllium

2742 K

5
B

Boron

4200 K

6
C

Carbon

4300 K

7
N

Nitrogen

77.4 K

8
O

Oxygen

90.2 K

9
F

Fluorine

85 K

10
Ne

Neon

27.1 K

11
Na

Sodium

1156.1 K

12
Mg

Magnesium

1363 K

13
Al

Aluminium

2743 K

14
Si

Silicon

3538 K

15
P

Phosphorus

553.7 K

16
S

Sulfur

717.8 K

17
Cl

Chlorine

239.1 K

18
Ar

Argon

87.3 K

19
K

Potassium

1032 K

20
Ca

Calcium

1757 K

21
Sc

Scandium

3109 K

22
Ti

Titanium

3560 K

23
V

Vanadium

3680 K

24
Cr

Chromium

2944 K

25
Mn

Manganese

2334 K

26
Fe

Iron

3134 K

27
Co

Cobalt

3200 K

28
Ni

Nickel

3003 K

29
Cu

Copper

2835 K

30
Zn

Zinc

1180 K

31
Ga

Gallium

2673 K

32
Ge

Germanium

3106 K

33
As

Arsenic

887 K

34
Se

Selenium

958 K

35
Br

Bromine

332 K

36
Kr

Krypton

119.9 K

37
Rb

Rubidium

961 K

38
Sr

Strontium

1650 K

39
Y

Yttrium

3203 K

40
Zr

Zirconium

4650 K

41
Nb

Niobium

5017 K

42
Mo

Molybdenum

4912 K

43
Tc

Technetium

4538 K

44
Ru

Ruthenium

4423 K

45
Rh

Rhodium

3968 K

46
Pd

Palladium

3236 K

47
Ag

Silver

2435 K

48
Cd

Cadmium

1040 K

49
In

Indium

2345 K

50
Sn

Tin

2875 K

51
Sb

Antimony

1908 K

52
Te

Tellurium

1261 K

53
I

Iodine

457.4 K

54
Xe

Xenon

165.1 K

55
Cs

Caesium

944 K

56
Ba

Barium

2118 K

57-71

 

Lanthanoids

 

72
Hf

Hafnium

4876 K

73
Ta

Tantalum

5731 K

74
W

Tungsten

6203 K

75
Re

Rhenium

5903 K

76
Os

Osmium

5285 K

77
Ir

Iridium

4403 K

78
Pt

Platinum

4098 K

79
Au

Gold

3243 K

80
Hg

Mercury

629.9 K

81
Tl

Thallium

1746 K

82
Pb

Lead

2022 K

83
Bi

Bismuth

1837 K

84
Po

Polonium

1235 K

85
At

Astatine

503 K

86
Rn

Radon

211.5 K

87
Fr

Francium

890 K

88
Ra

Radium

2010 K

89-103

 

Actinoids

 

104
Rf

Rutherfordium

5800 K

105
Db

Dubnium

 

106
Sg

Seaborgium

 

107
Bh

Bohrium

 

108
Hs

Hassium

 

109
Mt

Meitnerium

 

110
Ds

Darmstadtium

 

111
Rg

Roentgenium

 

112
Cn

Copernicium

357 K

113
Nh

Nihonium

1430 K

114
Fl

Flerovium

210 K

115
Mc

Moscovium

1400 K

116
Lv

Livermorium

1035-1135 K

117
Ts

Tennessine

883 K

118
Og

Oganesson

350 K

57
La

Lanthanum

3737 K

58
Ce

Cerium

3716 K

59
Pr

Praseodymium

3403 K

60
Nd

Neodymium

3347 K

61
Pm

Promethium

3273 K

62
Sm

Samarium

2173 K

63
Eu

Europium

1802 K

64
Gd

Gadolinium

3273 K

65
Tb

Terbium

3396 K

66
Dy

Dysprosium

2840 K

67
Ho

Holmium

2873 K

68
Er

Erbium

3141 K

69
Th

Thulium

2223 K

70
Yb

Ytterbium

1469 K

71
Lu

Lutetium

3675 K

89
Ac

Actinium

3500 K

90
Th

Thorium

5061 K

91
Pa

Protactinium

4300 K

92
U

Uranium

4404 K

93
Np

Neptunium

4447 K

94
Pu

Plutonium

3505 K

95
Am

Americium

2880 K

96
Cm

Curium

3383 K

97
Bk

Berkelium

2900 K

98
Cf

Californium

1743 K

99
Es

Einsteinium

1269 K

100
Fm

Fermium

 

101
Md

Mendelevium

 

102
No

Nobelium

 

103
Lr

Lawrencium

 

Roentgenium – Boiling Point

Boiling point of Roentgenium is –°C.

Note that, the boiling point associated with the standard atmospheric pressure.

In general, boiling is a phase change of a substance from the liquid to the gas phase. The boiling point of a substance is the temperature at which this phase change (boiling or vaporization) occurs. The temperature at which vaporization (boiling) starts to occur for a given pressure is also known as the saturation temperature and at this conditions a mixture of vapor and liquid can exist together. The liquid can be said to be saturated with thermal energy. Any addition of thermal energy results in a phase transition. At the boiling point the two phases of a substance, liquid and vapor, have identical free energies and therefore are equally likely to exist. Below the boiling point, the liquid is the more stable state of the two, whereas above the gaseous form is preferred. The pressure at which vaporization (boiling) starts to occur for a given temperature is called the saturation pressure. When considered as the temperature of the reverse change from vapor to liquid, it is referred to as the condensation point.

As can be seen, the boiling point of a liquid varies depending upon the surrounding environmental pressure. A liquid in a partial vacuum has a lower boiling point than when that liquid is at atmospheric pressure. A liquid at high pressure has a higher boiling point than when that liquid is at atmospheric pressure. For example, water boils at 100°C (212°F) at sea level, but at 93.4°C (200.1°F) at 1900 metres (6,233 ft) altitude. On the other hand, water boils at 350°C (662°F) at 16.5 MPa (typical pressure of PWRs).

In the periodic table of elements, the element with the lowest boiling point is helium. Both the boiling points of rhenium and tungsten exceed 5000 K at standard pressure. Since it is difficult to measure extreme temperatures precisely without bias, both have been cited in the literature as having the higher boiling point.

 

melting-and-boiling-point-chemical-elements-chart

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