Livermorium

Livermorium
Livermorium block | Image: Learnool

Livermorium (Lv) is a chemical element of the periodic table, located in the group 16 and the period 7, and has the atomic number 116. It is named after the Lawrence Livermore National Laboratory, located in Livermore, California. It is a transuranium element and is counted as one of the radioactive elements. It is a member of the chalcogen group.

On periodic table

group 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18
period
1 1
H
Click on the image to learn more!

Hydrogen
2
He
Click on the image to learn more!

Helium
2 3
Li
Click on the image to learn more!

Lithium
4
Be
Click on the image to learn more!

Beryllium
5
B
Click on the image to learn more!

Boron
6
C
Click on the image to learn more!

Carbon
7
N
Click on the image to learn more!

Nitrogen
8
O
Click on the image to learn more!

Oxygen
9
F
Click on the image to learn more!

Fluorine
10
Ne
Click on the image to learn more!

Neon
3 11
Na
Click on the image to learn more!

Sodium
12
Mg
Click on the image to learn more!

Magnesium
13
Al
Click on the image to learn more!

Aluminium
14
Si
Click on the image to learn more!

Silicon
15
P
Click on the image to learn more!

Phosphorus
16
S
Click on the image to learn more!

Sulfur
17
Cl
Click on the image to learn more!

Chlorine
18
Ar
Click on the image to learn more!

Argon
4 19
K
Click on the image to learn more!

Potassium
20
Ca
Click on the image to learn more!

Calcium
21
Sc
Click on the image to learn more!

Scandium
22
Ti
Click on the image to learn more!

Titanium
23
V
Click on the image to learn more!

Vanadium
24
Cr
Click on the image to learn more!

Chromium
25
Mn
Click on the image to learn more!

Manganese
26
Fe
Click on the image to learn more!

Iron
27
Co
Click on the image to learn more!

Cobalt
28
Ni
Click on the image to learn more!

Nickel
29
Cu
Click on the image to learn more!

Copper
30
Zn
Click on the image to learn more!

Zinc
31
Ga
Click on the image to learn more!

Gallium
32
Ge
Click on the image to learn more!

Germanium
33
As
Click on the image to learn more!

Arsenic
34
Se
Click on the image to learn more!

Selenium
35
Br
Click on the image to learn more!

Bromine
36
Kr
Click on the image to learn more!

Krypton
5 37
Rb
Click on the image to learn more!

Rubidium
38
Sr
Click on the image to learn more!

Strontium
39
Y
Click on the image to learn more!

Yttrium
40
Zr
Click on the image to learn more!

Zirconium
41
Nb
Click on the image to learn more!

Niobium
42
Mo
Click on the image to learn more!

Molybdenum
43
Tc
Click on the image to learn more!

Technetium
44
Ru
Click on the image to learn more!

Ruthenium
45
Rh
Click on the image to learn more!

Rhodium
46
Pd
Click on the image to learn more!

Palladium
47
Ag
Click on the image to learn more!

Silver
48
Cd
Click on the image to learn more!

Cadmium
49
In
Click on the image to learn more!

Indium
50
Sn
Click on the image to learn more!

Tin
51
Sb
Click on the image to learn more!

Antimony
52
Te
Click on the image to learn more!

Tellurium
53
I
Click on the image to learn more!

Iodine
54
Xe
Click on the image to learn more!

Xenon
6 55
Cs
Click on the image to learn more!

Caesium
56
Ba
Click on the image to learn more!

Barium
72
Hf
Click on the image to learn more!

Hafnium
73
Ta
Click on the image to learn more!

Tantalum
74
W
Click on the image to learn more!

Tungsten
75
Re
Click on the image to learn more!

Rhenium
76
Os
Click on the image to learn more!

Osmium
77
Ir
Click on the image to learn more!

Iridium
78
Pt
Click on the image to learn more!

Platinum
79
Au
Click on the image to learn more!

Gold
80
Hg
Click on the image to learn more!

Mercury
81
Tl
Click on the image to learn more!

Thallium
82
Pb
Click on the image to learn more!

Lead
83
Bi
Click on the image to learn more!

Bismuth
84
Po
Click on the image to learn more!

Polonium
85
At
Click on the image to learn more!

Astatine
86
Rn
Click on the image to learn more!

Radon
7 87
Fr
Click on the image to learn more!

Francium
88
Ra
Click on the image to learn more!

Radium
104
Rf
Click on the image to learn more!

Rutherfordium
105
Db
Click on the image to learn more!

Dubnium
106
Sg
Click on the image to learn more!

Seaborgium
107
Bh
Click on the image to learn more!

Bohrium
108
Hs
Click on the image to learn more!

Hassium
109
Mt
Click on the image to learn more!

Meitnerium
110
Ds
Click on the image to learn more!

Darmstadtium
111
Rg
Click on the image to learn more!

Roentgenium
112
Cn
Click on the image to learn more!

Copernicium
113
Nh
Click on the image to learn more!

Nihonium
114
Fl
Click on the image to learn more!

Flerovium
115
Mc
Click on the image to learn more!

Moscovium
116
Lv
Livermorium
117
Ts
Click on the image to learn more!

Tennessine
118
Og
Click on the image to learn more!

Oganesson
57
La
Click on the image to learn more!

Lanthanum
58
Ce
Click on the image to learn more!

Cerium
59
Pr
Click on the image to learn more!

Praseodymium
60
Nd
Click on the image to learn more!

Neodymium
61
Pm
Click on the image to learn more!

Promethium
62
Sm
Click on the image to learn more!

Samarium
63
Eu
Click on the image to learn more!

Europium
64
Gd
Click on the image to learn more!

Gadolinium
65
Tb
Click on the image to learn more!

Terbium
66
Dy
Click on the image to learn more!

Dysprosium
67
Ho
Click on the image to learn more!

Holmium
68
Er
Click on the image to learn more!

Erbium
69
Tm
Click on the image to learn more!

Thulium
70
Yb
Click on the image to learn more!

Ytterbium
71
Lu
Click on the image to learn more!

Lutetium
89
Ac
Click on the image to learn more!

Actinium
90
Th
Click on the image to learn more!

Thorium
91
Pa
Click on the image to learn more!

Protactinium
92
U
Click on the image to learn more!

Uranium
93
Np
Click on the image to learn more!

Neptunium
94
Pu
Click on the image to learn more!

Plutonium
95
Am
Click on the image to learn more!

Americium
96
Cm
Click on the image to learn more!

Curium
97
Bk
Click on the image to learn more!

Berkelium
98
Cf
Click on the image to learn more!

Californium
99
Es
Click on the image to learn more!

Einsteinium
100
Fm
Click on the image to learn more!

Fermium
101
Md
Click on the image to learn more!

Mendelevium
102
No
Click on the image to learn more!

Nobelium
103
Lr
Click on the image to learn more!

Lawrencium
– p block

Livermorium is a p-block element, situated in the sixteenth column and the seventh row of the periodic table. Its atomic number is 116 and its symbol is Lv.

Element information

Livermorium Periodic Table
Livermorium location on periodic table | Image: Learnool
Livermorium is found in the seventh row of the periodic table, next to the moscovium element.
Origin of name named after Lawrence Livermore National Laboratory, located in Livermore, California
Symbol Lv
Atomic number (Z) 116
Atomic mass (293)
Block p-block
Group 16 (oxygen group)
Period 7
Classification Unknown chemical properties
Atomic radius 183 pm (predicted)
Covalent radius 162-166 pm (extrapolated)
Melting point 364-507 ℃, 687-944 ℉, 637-780 K (extrapolated)
Boiling point 762-862 ℃, 1403-1583 ℉, 1035-1135 K (extrapolated)
Electron configuration [Rn] 5f14 6d10 7s2 7p4
Learn how to write: Livermorium electron configuration
Electrons per shell 2, 8, 18, 32, 32, 18, 6 (predicted)
Phase at r.t Solid (predicted)
Density near r.t 12.9 g/cm3 (predicted)
Natural occurrence Synthetic
Oxidation state +2 (predicted)
Protons
Neutrons
Electrons
116
177
116
Valence electrons 6
CAS number 54100-71-9
Discovered at Joint Institute for Nuclear Research (JINR) and Lawrence Livermore National Laboratory (LLNL) in 2000

History

Livermorium was first synthesized by a team of Russian and American scientists in 2000 at the Joint Institute for Nuclear Research (JINR) in Dubna, Russia, and later confirmed by scientists at Lawrence Livermore National Laboratory in California, USA.

The discovery of livermorium was a collaborative effort between the Joint Institute for Nuclear Research in Dubna and the Lawrence Livermore National Laboratory. In 1999, the two laboratories signed an agreement to work together on the discovery of new superheavy elements. The team of Russian scientists led by Yuri Oganessian bombarded curium-248 with calcium-48, leading to the discovery of livermorium in 2000. The element was named after the Lawrence Livermore National Laboratory, where many superheavy elements have been synthesized.

The discovery of livermorium marked an important milestone in the field of nuclear physics and chemistry. It was the first element to be discovered by a joint team of Russian and American scientists and the heaviest element to be synthesized at the time of its discovery. The discovery also highlighted the increasing capabilities of scientists to synthesize and study superheavy elements, which have unique properties and potential applications in fields such as nuclear energy and medicine.

Occurrence and production

Livermorium is a highly radioactive synthetic element that does not exist naturally on Earth. It was first synthesized by a team of Russian and American scientists in 2000 by bombarding curium-248 with calcium-48 ions. Since livermorium is not found in nature, it is not known to have any biological or environmental significance.

Livermorium is produced artificially in particle accelerators through nuclear reactions involving lighter elements. In 2000, the first atoms of livermorium were synthesized by a team of scientists at the Joint Institute for Nuclear Research (JINR) in Dubna, Russia, and the Lawrence Livermore National Laboratory (LLNL) in California, USA. They used a heavy-ion accelerator to fire a beam of calcium-48 ions at a target containing curium-248. The resulting nuclear fusion reaction produced livermorium-293, which has a half-life of about 53 milliseconds. Since then, livermorium has been synthesized in other experiments using similar methods, but only in very small quantities due to its short half-life and the difficulty of producing the necessary reactants.

Properties

Physical properties

Livermorium is expected to be a solid at room temperature.

Its melting point is predicted to be around 500 ℃, and its boiling point is estimated to be around 800 ℃.

Livermorium is believed to have a metallic appearance.

Chemical properties

Livermorium is expected to be a highly reactive element due to its high electronegativity.

It is expected to readily react with halogens and oxygen, forming oxides and halides.

Livermorium is also expected to be a strong reducing agent.

The predicted electron configuration of livermorium is [Rn] 5f14 6d10 7s2 7p4, with six valence electrons in the outermost shell.

Atomic and nuclear properties

Livermorium is a member of the group 16 elements, also known as chalcogens.

Its atomic number is 116, and its atomic weight is 293.

Livermorium is a radioactive element, and its most stable isotope, livermorium-293, has a half-life of about 53 milliseconds.

Livermorium is believed to be a heavy element, with an estimated density of around 12.9 grams per cubic centimeter.

Other properties

Due to its high reactivity and short half-life, livermorium has no known uses outside of basic scientific research.

Livermorium has not been produced in large enough quantities to study its physical or chemical properties in detail.

Applications

Fundamental research

The synthesis of livermorium and other heavy elements plays a crucial role in understanding the nuclear physics of the universe. Studying their properties helps us to understand the behavior of atomic nuclei, the limits of the periodic table, and the formation of elements in the universe.

Medical applications

Though livermorium has no direct medical applications yet, it can be used in nuclear medicine research to study the behavior of radioactive isotopes in the body.

Materials science

The study of heavy elements such as livermorium can aid in the development of new materials and technologies. Understanding their electronic and chemical properties can lead to the development of advanced materials with novel properties.

Energy production

The study of heavy elements such as livermorium can lead to the development of new nuclear technologies that could provide safe and sustainable energy sources in the future. However, this area of research is still in its early stages.

Note: It is important to note that the applications of livermorium are not yet confirmed, as the element has a very short half-life and only small amounts have been produced. Any potential applications would require further research and development.

Interesting facts

Livermorium is named after Lawrence Livermore National Laboratory in California, USA, where it was discovered.

It is one of the heaviest elements known to exist.

Livermorium is a man-made element that can only be produced in a laboratory and has not been found naturally on Earth.

It is a member of the group 16 elements, also known as the chalcogens, which includes oxygen, sulfur, and selenium.

Livermorium has only been produced in very small quantities, with only a few atoms at a time, making it very difficult to study its properties.

Its most stable isotope, livermorium-293, has a half-life of about 53 milliseconds.

Livermorium is a highly reactive element and is expected to behave similarly to its lighter homologues in the periodic table, such as polonium and tellurium.

Its electron configuration suggests that it is a metal, but its properties have not yet been fully characterized due to its short half-life and difficulty in producing enough of it.

Livermorium may have potential applications in nuclear medicine and in the development of new materials due to its unique properties.

Livermorium has not been studied extensively, so there is still much to be learned about this element and its potential uses.

Related

More elements

s block
p block
d block
f block
Barium Aluminium Bohrium Actinium
Beryllium Antimony Cadmium Americium
Caesium Argon Chromium Berkelium
Calcium Arsenic Cobalt Californium
Francium Astatine Copernicium Cerium
Helium Bismuth Copper Curium
Hydrogen Boron Darmstadtium Dysprosium
Lithium Bromine Dubnium Einsteinium
Magnesium Carbon Gold Erbium
Potassium Chlorine Hafnium Europium
Radium Flerovium Hassium Fermium
Rubidium Fluorine Iridium Gadolinium
Sodium Gallium Iron Holmium
Strontium Germanium Lawrencium Lanthanum
Indium Lutetium Mendelevium
Iodine Manganese Neodymium
Krypton Meitnerium Neptunium
Lead Mercury Nobelium
Livermorium Molybdenum Plutonium
Moscovium Nickel Praseodymium
Neon Niobium Promethium
Nihonium Osmium Protactinium
Nitrogen Palladium Samarium
Oganesson Platinum Terbium
Oxygen Rhenium Thorium
Phosphorus Rhodium Thulium
Polonium Roentgenium Uranium
Radon Ruthenium Ytterbium
Selenium Rutherfordium
Silicon Scandium
Sulfur Seaborgium
Tellurium Silver
Tennessine Tantalum
Thallium Technetium
Tin Titanium
Xenon Tungsten
Vanadium
Yttrium
Zinc
Zirconium

External links

Deep

Learnool.com was founded by Deep Rana, who is a mechanical engineer by profession and a blogger by passion. He has a good conceptual knowledge on different educational topics and he provides the same on this website. He loves to learn something new everyday and believes that the best utilization of free time is developing a new skill.

Leave a Comment