116 Lv

Livermorium (Lv) - Physical Properties

Transition Metals

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Understanding Livermorium (Lv)

Livermorium, designated by the symbol Lv and atomic number 116, is a synthetic superheavy element. It is named after the Lawrence Livermore National Laboratory in California, United States, where its synthesis was part of collaborative research. Due to its extremely short half-life, with the longest-lived isotope Livermorium-293 having a half-life of approximately 0.06 seconds, direct observation and measurement of its physical properties are currently not possible. Therefore, all descriptions of its properties are based on theoretical predictions and extrapolations from the trends of lighter elements in the periodic table, particularly within Group 16 (the chalcogens).

Classification as Metal, Non-metal, or Metalloid

Based on its position in Group 16, below tellurium (a metalloid) and polonium (a post-transition metal), livermorium is predicted to be a post-transition metal. As atomic number increases down a group, metallic character generally becomes more pronounced. Relativistic effects, which become significant for very heavy elements, are also considered in these predictions and support its metallic nature, though they can also influence its chemical behavior in complex ways.

Predicted Physical Properties

The physical properties of livermorium are largely theoretical. These predictions consider its position within the periodic table and the influence of relativistic effects on its electronic structure.

Color and Texture

Livermorium is predicted to be a solid at standard temperature and pressure. Like many other metallic elements, particularly post-transition metals such as lead or bismuth, it is theorized to possess a silvery-white or grey metallic luster. Its texture, if it could be observed in macroscopic quantities, would likely be solid and metallic.

State of Matter

At room temperature (approximately 20-25 °C), livermorium is predicted to exist in a solid state. This aligns with the trend observed in the heavier elements of Group 16, such as polonium.

Melting and Boiling Points

Theoretical calculations provide estimates for the melting and boiling points of livermorium, though these predictions have a considerable degree of uncertainty.

  • Melting Point: Predicted to be in the range of approximately 67 °C to 200 °C.
  • Boiling Point: Estimated to be around 350 °C to 800 °C. These values are significantly lower than those for its lighter homologue, polonium, reflecting complex relativistic effects on interatomic bonding.

Related Comparisons


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40

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41

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43

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44

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45

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46

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47

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54

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55

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57

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62

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64

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65

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66

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67

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68

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69

Tm

Thulium

lanthanoid

70

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Ytterbium

lanthanoid

71

Lu

Lutetium

lanthanoid

72

Hf

Hafnium

transition

73

Ta

Tantalum

transition

74

W

Tungsten

transition

75

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Rhenium

transition

76

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Osmium

transition

77

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Iridium

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78

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79

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80

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81

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82

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83

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Bismuth

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84

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Polonium

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85

At

Astatine

halogen

86

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Radon

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87

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Francium

alkali

88

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Radium

alkaline

89

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Actinium

actinoid

90

Th

Thorium

actinoid

91

Pa

Protactinium

actinoid

92

U

Uranium

actinoid

93

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Neptunium

actinoid

94

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Plutonium

actinoid

95

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Americium

actinoid

96

Cm

Curium

actinoid

97

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Berkelium

actinoid

98

Cf

Californium

actinoid

99

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Einsteinium

actinoid

100

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actinoid

101

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Mendelevium

actinoid

102

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Nobelium

actinoid

103

Lr

Lawrencium

actinoid

104

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Rutherfordium

transition

105

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Dubnium

transition

106

Sg

Seaborgium

transition

107

Bh

Bohrium

transition

108

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Hassium

transition

109

Mt

Meitnerium

transition

110

Ds

Darmstadtium

transition

111

Rg

Roentgenium

transition

112

Cn

Copernicium

transition

113

Nh

Nihonium

post transition

114

Fl

Flerovium

post transition

115

Mc

Moscovium

post transition

116

Lv

Livermorium

post transition

117

Ts

Tennessine

halogen

118

Og

Oganesson

noble gas