114 Fl

Flerovium (Fl) - Everyday Uses

Post-transition Metals

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Flerovium: An Introduction to a Synthetic Element

Flerovium (Fl), with atomic number 114, is a synthetic chemical element. It belongs to the p-block of the periodic table and is classified as a transactinide element. Its existence was first confirmed in 1999 at the Joint Institute for Nuclear Research (JINR) in Dubna, Russia. The element is named after the Russian physicist Georgy Flyorov, who founded the Flerov Laboratory of Nuclear Reactions at JINR.

Natural Occurrence

Flerovium does not occur naturally on Earth or anywhere else in the universe. It is a synthetic element, meaning it is exclusively created in highly specialized scientific laboratories through nuclear fusion reactions.

Synthesis in Laboratories

The production of flerovium involves bombarding heavy nuclei with other lighter nuclei in powerful particle accelerators. For example, isotopes of flerovium have been produced by colliding plutonium-244 nuclei with calcium-48 nuclei. This process is known as cold fusion or hot fusion, depending on the energy of the colliding particles and the evaporation of neutrons.

A representative nuclear fusion reaction for creating an isotope of flerovium can be written as: $^{244}{94}\text{Pu} + ^{48}{20}\text{Ca} \rightarrow ^{292}{114}\text{Fl}^* \rightarrow ^{289}{114}\text{Fl} + 3^1_0\text{n}$ This highly controlled experiment yields only a few atoms at a time. The fleeting existence and extremely short half-lives of flerovium isotopes make its study challenging.

Extraction and Industrial Use

Given its synthetic nature and extremely short half-lives (ranging from milliseconds to seconds for its known isotopes), flerovium is not extracted from natural sources. There are no industrial applications for flerovium. Its production is limited to a few atoms at a time, making it entirely impractical for any use beyond fundamental scientific research. The primary motivation for synthesizing elements like flerovium is to explore the limits of the periodic table and investigate the theoretical “island of stability,” where superheavy elements might exhibit relatively longer half-lives.

Common, Everyday Uses

Flerovium has no common, everyday uses. Due to its synthetic nature, extreme radioactivity, and extremely brief existence, it cannot be manufactured in quantities large enough or kept stable long enough for any practical application outside of a highly specialized research laboratory environment. It is not found in consumer products, industrial processes, medical applications, or any other practical real-world scenario.

Indian Context for Superheavy Element Research

While India possesses significant capabilities in nuclear physics research at institutions such as the Bhabha Atomic Research Centre (BARC) and the Variable Energy Cyclotron Centre (VECC), the specific synthesis of superheavy elements like flerovium is conducted in a very limited number of international facilities, primarily in Russia, Germany, and the United States. Indian scientists contribute substantially to theoretical nuclear physics and experimental studies of nuclear reactions. However, the direct synthesis of flerovium is not performed in India, and consequently, there are no Indian industrial uses or extraction activities related to this element.

Related Comparisons


Element Directory

1

H

Hydrogen

nonmetal

2

He

Helium

noble gas

3

Li

Lithium

alkali

4

Be

Beryllium

alkaline

5

B

Boron

metalloid

6

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Carbon

nonmetal

7

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Nitrogen

nonmetal

8

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nonmetal

9

F

Fluorine

halogen

10

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Neon

noble gas

11

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12

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13

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Aluminum

post transition

14

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Silicon

metalloid

15

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Phosphorus

nonmetal

16

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nonmetal

17

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halogen

18

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Argon

noble gas

19

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20

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Calcium

alkaline

21

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Scandium

transition

22

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transition

23

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Vanadium

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24

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transition

25

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transition

26

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Iron

transition

27

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transition

28

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Nickel

transition

29

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transition

30

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Zinc

transition

31

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Gallium

post transition

32

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Germanium

metalloid

33

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metalloid

34

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Selenium

nonmetal

35

Br

Bromine

halogen

36

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Krypton

noble gas

37

Rb

Rubidium

alkali

38

Sr

Strontium

alkaline

39

Y

Yttrium

transition

40

Zr

Zirconium

transition

41

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Niobium

transition

42

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Molybdenum

transition

43

Tc

Technetium

transition

44

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Ruthenium

transition

45

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Rhodium

transition

46

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Palladium

transition

47

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transition

48

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Cadmium

transition

49

In

Indium

post transition

50

Sn

Tin

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51

Sb

Antimony

metalloid

52

Te

Tellurium

metalloid

53

I

Iodine

halogen

54

Xe

Xenon

noble gas

55

Cs

Caesium

alkali

56

Ba

Barium

alkaline

57

La

Lanthanum

lanthanoid

58

Ce

Cerium

lanthanoid

59

Pr

Praseodymium

lanthanoid

60

Nd

Neodymium

lanthanoid

61

Pm

Promethium

lanthanoid

62

Sm

Samarium

lanthanoid

63

Eu

Europium

lanthanoid

64

Gd

Gadolinium

lanthanoid

65

Tb

Terbium

lanthanoid

66

Dy

Dysprosium

lanthanoid

67

Ho

Holmium

lanthanoid

68

Er

Erbium

lanthanoid

69

Tm

Thulium

lanthanoid

70

Yb

Ytterbium

lanthanoid

71

Lu

Lutetium

lanthanoid

72

Hf

Hafnium

transition

73

Ta

Tantalum

transition

74

W

Tungsten

transition

75

Re

Rhenium

transition

76

Os

Osmium

transition

77

Ir

Iridium

transition

78

Pt

Platinum

transition

79

Au

Gold

transition

80

Hg

Mercury

transition

81

Tl

Thallium

post transition

82

Pb

Lead

post transition

83

Bi

Bismuth

post transition

84

Po

Polonium

metalloid

85

At

Astatine

halogen

86

Rn

Radon

noble gas

87

Fr

Francium

alkali

88

Ra

Radium

alkaline

89

Ac

Actinium

actinoid

90

Th

Thorium

actinoid

91

Pa

Protactinium

actinoid

92

U

Uranium

actinoid

93

Np

Neptunium

actinoid

94

Pu

Plutonium

actinoid

95

Am

Americium

actinoid

96

Cm

Curium

actinoid

97

Bk

Berkelium

actinoid

98

Cf

Californium

actinoid

99

Es

Einsteinium

actinoid

100

Fm

Fermium

actinoid

101

Md

Mendelevium

actinoid

102

No

Nobelium

actinoid

103

Lr

Lawrencium

actinoid

104

Rf

Rutherfordium

transition

105

Db

Dubnium

transition

106

Sg

Seaborgium

transition

107

Bh

Bohrium

transition

108

Hs

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