Erbium

Erbium
Erbium block

Erbium (Er) is a chemical element of the periodic table, located in the period 6, and has the atomic number 68. It is the twelfth element in the lanthanide series. It is a soft, malleable, lustrous, silvery-white metal, which is named after Ytterby, a village in Sweden, where it was mined. It is never found freely in nature and is counted as one of the rare earth elements.

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
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Hydrogen
2
He
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Helium
2 3
Li
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Lithium
4
Be
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Beryllium
5
B
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Boron
6
C
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Carbon
7
N
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Nitrogen
8
O
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Oxygen
9
F
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Fluorine
10
Ne
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Neon
3 11
Na
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Sodium
12
Mg
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Magnesium
13
Al
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Aluminium
14
Si
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Silicon
15
P
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Phosphorus
16
S
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Sulfur
17
Cl
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Chlorine
18
Ar
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Argon
4 19
K
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Potassium
20
Ca
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Calcium
21
Sc
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Scandium
22
Ti
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Titanium
23
V
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Vanadium
24
Cr
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Chromium
25
Mn
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Manganese
26
Fe
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Iron
27
Co
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Cobalt
28
Ni
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Nickel
29
Cu
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Copper
30
Zn
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Zinc
31
Ga
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Gallium
32
Ge
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Germanium
33
As
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Arsenic
34
Se
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Selenium
35
Br
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Bromine
36
Kr
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Krypton
5 37
Rb
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Rubidium
38
Sr
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Strontium
39
Y
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Yttrium
40
Zr
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Zirconium
41
Nb
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Niobium
42
Mo
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Molybdenum
43
Tc
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Technetium
44
Ru
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Ruthenium
45
Rh
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Rhodium
46
Pd
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Palladium
47
Ag
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Silver
48
Cd
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Cadmium
49
In
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Indium
50
Sn
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Tin
51
Sb
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Antimony
52
Te
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Tellurium
53
I
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Iodine
54
Xe
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Xenon
6 55
Cs
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Caesium
56
Ba
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Barium
72
Hf
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Hafnium
73
Ta
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Tantalum
74
W
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Tungsten
75
Re
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Rhenium
76
Os
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Osmium
77
Ir
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Iridium
78
Pt
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Platinum
79
Au
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Gold
80
Hg
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Mercury
81
Tl
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Thallium
82
Pb
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Lead
83
Bi
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Bismuth
84
Po
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Polonium
85
At
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Astatine
86
Rn
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Radon
7 87
Fr
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Francium
88
Ra
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Radium
104
Rf
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Rutherfordium
105
Db
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Dubnium
106
Sg
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Seaborgium
107
Bh
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Bohrium
108
Hs
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Hassium
109
Mt
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Meitnerium
110
Ds
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Darmstadtium
111
Rg
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Roentgenium
112
Cn
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Copernicium
113
Nh
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Nihonium
114
Fl
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Flerovium
115
Mc
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Moscovium
116
Lv
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Livermorium
117
Ts
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Tennessine
118
Og
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Oganesson
57
La
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Lanthanum
58
Ce
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Cerium
59
Pr
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Praseodymium
60
Nd
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Neodymium
61
Pm
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Promethium
62
Sm
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Samarium
63
Eu
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Europium
64
Gd
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Gadolinium
65
Tb
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Terbium
66
Dy
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Dysprosium
67
Ho
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Holmium
68
Er
Erbium
69
Tm
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Thulium
70
Yb
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Ytterbium
71
Lu
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Lutetium
89
Ac
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Actinium
90
Th
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Thorium
91
Pa
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Protactinium
92
U
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Uranium
93
Np
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Neptunium
94
Pu
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Plutonium
95
Am
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Americium
96
Cm
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Curium
97
Bk
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Berkelium
98
Cf
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Californium
99
Es
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Einsteinium
100
Fm
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Fermium
101
Md
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Mendelevium
102
No
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Nobelium
103
Lr
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Lawrencium
– f block

Erbium is found in the lanthanide series, a group of elements located at the bottom of the periodic table. Specifically, in period 6, between holmium (Ho) and thulium (Tm).

Element information

Erbium Element
Erbium appearance | source: Wikipedia
Erbium Periodic Table
Erbium location on periodic table
Erbium is found in the sixth row of the periodic table, next to the holmium element.
Origin of name named after Ytterby, a village in Sweden
Symbol Er
Atomic number (Z) 68
Atomic mass 167.259 u
Block f-block
Period 6
Classification Lanthanide
Atomic radius 176 pm
Covalent radius 189±6 pm
Melting point 1529 ℃, 2784 ℉, 1802 K
Boiling point 2868 ℃, 5194 ℉, 3141 K
Electron configuration [Xe] 4f12 6s2
Learn how to write: Erbium electron configuration
Electrons per shell 2, 8, 18, 30, 8, 2
Crystal structure Hexagonal close-packed (hcp)
Phase at r.t Solid
Density near r.t 9.066 g/cm3
Main isotopes Erbium-162, Erbium-164, Erbium-166, Erbium-167, Erbium-168, Erbium-170
Natural occurrence Primordial
Oxidation state +3
Electronegativity (Pauling scale) 1.24
Protons
Neutrons
Electrons
68
99
68
CAS number 7440-52-0
Discovered by Carl Gustaf Mosander in 1843

History

Carl Gustaf Mosander | source: Wikipedia

Erbium was first discovered in 1843 by Swedish chemist Carl Gustaf Mosander. Mosander discovered the element while analyzing a sample of yttria, a rare earth mineral that was discovered in Ytterby, Sweden. Mosander’s yttria sample contained three distinct oxides, which he named yttria, erbia, and terbia. Mosander found that erbia was the component of the sample that produced a pink color in solution.

Mosander’s erbia was later found to contain several other rare earth elements, including scandium, yttrium, holmium, and thulium. For many years, the term “erbia” was used to describe a group of rare earth oxides that contained varying amounts of erbium. In 1877, French chemist Paul Émile Lecoq de Boisbaudran was able to isolate erbium from Mosander’s erbia sample through a series of fractional crystallizations.

Erbium’s name comes from the Latin word “Erbia,” which is the old name for Ytterby, the Swedish village where the original yttria sample was discovered. The discovery of erbium, along with the other rare earth elements, opened up new avenues for research in chemistry and physics, as these elements exhibited unique properties and behaviors that were not seen in other elements. Today, erbium is primarily used in the production of fiber optic amplifiers, as it is able to amplify light signals in the 1.5 micron wavelength range, which is commonly used in telecommunications.

Occurrence and production

Erbium is a rare earth element that occurs in various minerals, including gadolinite, euxenite, xenotime, fergusonite, and bastnasite. It is primarily obtained from these minerals through a complex extraction process.

The process typically involves the treatment of the minerals with acid to dissolve the rare earth elements. This is followed by the separation of the individual elements using ion exchange or solvent extraction techniques. Finally, the separated elements are purified through a series of chemical and physical processes to obtain high-purity erbium.

Erbium is also produced as a byproduct of other rare earth mining operations, particularly those involving monazite ores. Monazite contains around 0.1% erbium, which can be recovered through the same extraction and purification processes used for other rare earth elements.

In recent years, China has been the leading producer of erbium, accounting for approximately 85% of global production. Other significant producers include the United States, Australia, and Russia.

Properties

Erbium is a silvery-white solid metal that belongs to the lanthanide series of elements.

It has a melting point of 1529 ℃ and a boiling point of 2868 ℃.

Erbium is a relatively stable metal that is not reactive to water, but it can react with acids to form salts.

It is a soft and malleable metal that can be easily cut with a knife.

Erbium has a hexagonal close-packed crystal structure at room temperature.

It is a paramagnetic element, which means it has unpaired electrons in its atomic and molecular orbitals, giving it magnetic properties.

Erbium has a relatively high electrical conductivity and is used in various electronic devices, such as amplifiers and fiber-optic amplifiers.

Erbium also has unique fluorescent properties that make it useful in certain applications, such as in laser technology and nuclear reactors.

It has 13 isotopes, with the most abundant being erbium-166.

The electron configuration of erbium is [Xe] 4f12 6s2, which means it has 12 electrons in its outermost 4f orbital.

Erbium has a unique green color, which is due to its absorption and emission of certain wavelengths of light.

Applications

Fiber optics

Erbium is widely used in the field of fiber optics due to its ability to amplify optical signals in the 1550 nm wavelength region. Erbium-doped fiber amplifiers (EDFAs) are commonly used in long-distance optical communication networks to boost the strength of optical signals transmitted through fiber-optic cables.

Nuclear reactors

Erbium is also used as a neutron absorber in nuclear reactors to control the rate of fission reactions. It is particularly effective in slowing down the rate of reactions in nuclear fuel rods during emergencies.

Medical applications

Erbium lasers are used in various medical procedures such as dermatology, ophthalmology, and dentistry. These lasers are particularly useful for skin resurfacing, removing age spots, tattoos, and dental procedures like teeth whitening.

Metallurgy

Erbium is added to alloys to improve their properties such as high-temperature strength, corrosion resistance, and ductility. Erbium is also used as a grain refiner in cast iron and steel alloys.

Coloration

Erbium is used as a colorant in glasses and ceramics to produce pink and purple colors. Erbium-doped glasses are also used in optical filters and laser materials.

Interesting facts

Erbium is named after the Swedish village of Ytterby, which has been a source of many rare earth elements.

Erbium is one of the rare earth elements that is not very rare, with an abundance in the Earth’s crust similar to that of lead.

Erbium has the highest density of all the rare earth elements, and is softer and more malleable than most of them.

Erbium has been used in nuclear technology, as it can absorb neutrons and be used as a control rod material in nuclear reactors.

Erbium-doped fiber amplifiers have revolutionized the field of optical communication, enabling long-distance and high-speed data transmission.

Erbium has potential applications in biomedical imaging and cancer treatment, due to its ability to absorb radiation and its fluorescence properties.

Erbium has been used in dental lasers, as it can be used to vaporize tooth enamel without damaging surrounding tissues.

Erbium has been used in alloys with vanadium and other metals to improve their mechanical properties, particularly at high temperatures.

Erbium has been found in the moon, with concentrations ranging from 0.5 to 8 parts per million in different lunar samples.

Erbium has been used in the production of green phosphors for television screens and fluorescent lamps.

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

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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.

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