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Osmium
Osmium

Tin
Tin



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Osmium vs Tin

Tin Metal
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1 Periodic Table
1.1 Symbol
Os
Sn
1.2 Group Number
814
Gadolinium
0 17
1.3 Period Number
65
Lithium
2 7
1.4 Block
d block
p block
1.5 Element Family
Transition Metal
Post-​Transition
1.6 CAS Number
74400427440315
Aluminium
7429905 54386242
1.7 Space Group Name
P63/mmc
I41/amd
1.8 Space Group Number
194.00141.00
Plutonium
11 229
2 Facts
2.1 Interesting Facts
  • Osmium metal does not oxidize in air unless it is heated.
  • But if it heated den it forms Osmium Tetroxide, which is highly toxic.
  • In the list of most abundant element Tin is ranked 49th.
  • Tin metal does not react with water as well as does not corrode in it.
2.2 Sources
Found As a By-product, Found in Minerals, Mining
Found in Minerals, Mining
2.3 History
2.3.1 Who Discovered
Smithson Tennant
Unknown
2.3.2 Discovery
In 1803
Before 3500 BC
2.4 Abundance
2.4.1 Abundance In Universe
3 * 10-7 %4 * 10-7 %
Thallium
5E-09 0.11
2.4.2 Abundance In Sun
~0.0000002 %~0.0000009 %
Beryllium
1E-08 0.1
2.4.3 Abundance In Meteorites
0.00 %0.00 %
Gold
1.7E-07 22
2.4.4 Abundance In Earth's Crust
0.00 %0.00 %
Radium
9.9E-12 8.1
2.4.5 Abundance In Oceans
NA0.00 %
Protactinium
2E-23 1.1
2.4.6 Abundance In Humans
NA0.00 %
Radium
1E-13 1.4
3 Uses
3.1 Uses & Benefits
  • Its has very limited uses and its alloys are very hard and are used in the manufacturing of pen tips, pivots, needles and electrical contacts.
  • It is also used as industrial catalyst to speed up the chemical reaction.
  • Tin-niobium alloy is used for producing superconducting magnets.
  • Tin salt known as a tin II chloride, it is used as a mordant and as a reducing agent for dyeing calico and silk.
3.1.1 Industrial Uses
Aerospace Industry, Automobile Industry, Electrical Industry, Electronic Industry
Automobile Industry, Chemical Industry, Food Industry
3.1.2 Medical Uses
NA
Dentistry
3.1.3 Other Uses
Alloys
NA
3.2 Biological Properties
3.2.1 Toxicity
Highly Toxic
Non Toxic
3.2.2 Present in Human Body
3.2.3 In Blood
NA0.38 Blood/mg dm-3
Plutonium
0 1970
3.2.4 In Bone
NA1.40 p.p.m.
Plutonium
0 170000
4 Physical
4.1 Melting Point
3,045.00 °C231.90 °C
Francium
27 3410
4.2 Boiling Point
5,027.00 °C2,270.00 °C
Flerovium
147 5660
4.3 Appearance
4.3.1 Physical State
Solid
Solid
4.3.2 Color
Silvery Bluish-Gray
Silvery White
4.3.3 Luster
Metallic
NA
4.4 Hardness
4.4.1 Mohs Hardness
7.001.50
Cesium
0.2 8.5
4.4.2 Brinell Hardness
3,490.00 MPa50.00 MPa
Cesium
0.14 3490
4.4.3 Vickers Hardness
NANA
Palladium
121 3430
4.5 Speed of Sound
4,940.00 m/s2,730.00 m/s
Thallium
818 16200
4.6 Optical Properties
4.6.1 Refractive Index
NANA
Mercury
1.000933 1.7229
4.6.2 Reflectivity
NANA
Molybdenum
58 97
4.7 Allotropes
4.7.1 α Allotropes
Not Available
Grey Tin (alpha Tin, Tin Pest)
4.7.2 β Allotropes
Not Available
White Tin (Beta Tin)
4.7.3 γ Allotropes
Not Available
Rhombic Tin (gamma Tin)
5 Chemical
5.1 Chemical Formula
Os
Sn
5.2 Isotopes
5.2.1 Known Isotopes
3535
Tennessine
0 38
5.3 Electronegativity
5.3.1 Pauling Electronegativity
2.201.96
Francium
0.7 2.54
5.3.2 Sanderson Electronegativity
NA1.49
Cesium
0.22 2.56
5.3.3 Allred Rochow Electronegativity
1.521.72
Cesium
0.86 1.82
5.3.4 Mulliken-Jaffe Electronegativity
NA2.21
Cesium
0.62 2.48
5.3.5 Allen Electronegativity
1.651.82
Cesium
0.659 2.7
5.4 Electropositivity
5.4.1 Pauling Electropositivity
1.802.04
Gold
1.46 3.3
5.5 Ionization Energies
5.5.1 1st Energy Level
840.00 kJ/mol708.60 kJ/mol
Cesium
375.7 26130
5.5.2 2nd Energy Level
1,309.80 kJ/mol1,411.80 kJ/mol
Ruthenium
710.2162 28750
5.5.3 3rd Energy Level
1,600.00 kJ/mol2,943.00 kJ/mol
Palladium
1600 34230
5.5.4 4th Energy Level
NA3,930.30 kJ/mol
Thorium
2780 37066
5.5.5 5th Energy Level
NA7,456.00 kJ/mol
Dubnium
4305.2 97510
5.5.6 6th Energy Level
NANA
Seaborgium
5715.8 105800
5.5.7 7th Energy level
NANA
Bohrium
7226.8 114300
5.5.8 8th Energy Level
NANA
Hassium
8857.4 125300
5.5.9 9th Energy Level
NANA
Yttrium
14110 134700
5.5.10 10th Energy Level
NANA
Strontium
17100 144300
5.5.11 11th Energy Level
NANA
Yttrium
19900 169988
5.5.12 12th Energy Level
NANA
Molybdenum
22219 189368
5.5.13 13th Energy Level
NANA
Molybdenum
26930 76015
5.5.14 14th Energy Level
NANA
Molybdenum
29196 86450
5.5.15 15th Energy Level
NANA
Manganese
41987 97510
5.5.16 16th Energy Level
NANA
Iron
47206 109480
5.5.17 17th Energy Level
NANA
Cobalt
52737 122200
5.5.18 18th Energy Level
NANA
Nickel
58570 134810
5.5.19 19th Energy Level
NANA
Copper
64702 148700
5.5.20 20th Energy Level
NANA
Molybdenum
80400 171200
5.5.21 21st Energy Level
NANA
Molybdenum
87000 179100
5.5.22 22nd Energy Level
NANA
Molybdenum
93400 184900
5.5.23 23rd Energy Level
NANA
Molybdenum
98420 198800
5.5.24 24th Energy Level
NANA
Molybdenum
104400 195200
5.5.25 25th Energy Level
NANA
Molybdenum
121900 121900
5.5.26 26th Energy Level
NANA
Molybdenum
127700 127700
5.5.27 27th Energy Level
NANA
Molybdenum
133800 133800
5.5.28 28th Energy Level
NANA
Molybdenum
139800 139800
5.5.29 29th Energy Level
NANA
Molybdenum
148100 148100
5.5.30 30th Energy Level
NANA
Molybdenum
154500 154500
5.6 Electrochemical Equivalent
1.77 g/amp-hr1.11 g/amp-hr
Beryllium
0.16812 8.3209
5.7 Electron Work Function
4.83 eV4.42 eV
Cesium
2.14 5.65
5.8 Other Chemical Properties
Chemical Stability, Ionization, Solubility
Ionization, Solubility
6 Atomic
6.1 Atomic Number
7650
Lithium
3 117
6.2 Electron Configuration
[Xe] 4f14 5d6 6s2
[Kr] 4d10 5s2 5p2
6.3 Crystal Structure
Hexagonal Close Packed (HCP)
Tetragonal (TETR)
6.3.1 Crystal Lattice
6.4 Atom
6.4.1 Number of Protons
7650
Lithium
3 117
6.4.2 Number of Neutrons
11469
Lithium
4 184
6.4.3 Number of Electrons
7650
Lithium
3 117
6.5 Radius of an Atom
6.5.1 Atomic Radius
133.80 pm140.00 pm
Beryllium
112 265
6.5.2 Covalent Radius
NA139.00 pm
Beryllium
96 260
6.5.3 Van der Waals Radius
216.00 pm217.00 pm
Zinc
139 348
6.6 Atomic Weight
190.23 amu118.71 amu
Lithium
6.94 294
6.7 Atomic Volume
8.49 cm3/mol16.30 cm3/mol
Manganese
1.39 71.07
6.8 Adjacent Atomic Numbers
6.8.1 Previous Element
6.8.2 Next Element
6.9 Valence Electron Potential
91.40 (-eV)83.50 (-eV)
Francium
8 392.42
6.10 Lattice Constant
273.44 pm583.18 pm
Beryllium
228.58 891.25
6.11 Lattice Angles
π/2, π/2, 2 π/3
π/2, π/2, π/2
6.12 Lattice C/A Ratio
1.58NA
Beryllium
1.567 1.886
7 Mechanical
7.1 Density
7.1.1 Density At Room Temperature
22.59 g/cm37.37 g/cm3
Lithium
0.534 40.7
7.1.2 Density When Liquid (at m.p.)
20.00 g/cm36.99 g/cm3
Lithium
0.512 20
7.2 Tensile Strength
1,000.00 MPaNA
Indium
2.5 11000
7.3 Viscosity
NANA
Mercury
0.001526 0.001526
7.4 Vapor Pressure
7.4.1 Vapor Pressure at 1000 K
NA0.00 (Pa)
Cerium
2.47E-11 121
7.4.2 Vapor Pressure at 2000 K
0.00 (Pa)NA
Tungsten
2.62E-10 774
7.5 Elasticity properties
7.5.1 Shear Modulus
222.00 GPa18.00 GPa
Potassium
1.3 222
7.5.2 Bulk Modulus
462.00 GPa58.00 GPa
Cesium
1.6 462
7.5.3 Young's Modulus
NA50.00 GPa
Cesium
1.7 528
7.6 Poisson Ratio
0.250.36
Beryllium
0.032 0.47
7.7 Other Mechanical Properties
Ductile
Ductile, Malleable
8 Magnetic
8.1 Magnetic Characteristics
8.1.1 Specific Gravity
22.577.31
Lithium
0.53 4500
8.1.2 Magnetic Ordering
Paramagnetic
Diamagnetic
8.1.3 Permeability
NANA
Bismuth
1.25643E-06 0.0063
8.1.4 Susceptibility
NANA
Bismuth
-0.000166 200000
8.2 Electrical Properties
8.2.1 Electrical Property
Conductor
Superconductor
8.2.2 Resistivity
81.20 nΩ·m115.00 nΩ·m
Thallium
0.18 961
8.2.3 Electrical Conductivity
0.11 106/cm Ω0.09 106/cm Ω
Plutonium
0.00666 0.63
8.2.4 Electron Affinity
106.10 kJ/mol107.30 kJ/mol
Mercury
0 222.8
9 Thermal
9.1 Specific Heat
0.13 J/(kg K)0.23 J/(kg K)
Americium
0.11 3.6
9.2 Molar Heat Capacity
24.70 J/mol·K27.11 J/mol·K
Beryllium
16.443 62.7
9.3 Thermal Conductivity
87.60 W/m·K66.80 W/m·K
Neptunium
6.3 429
9.4 Critical Temperature
NANA
Ytterbium
26.3 3223
9.5 Thermal Expansion
5.10 µm/(m·K)22.00 µm/(m·K)
Tungsten
4.5 97
9.6 Enthalpy
9.6.1 Enthalpy of Vaporization
627.60 kJ/mol290.40 kJ/mol
Zinc
7.32 799.1
9.6.2 Enthalpy of Fusion
29.30 kJ/mol7.03 kJ/mol
Cesium
2.1 35.23
9.6.3 Enthalpy of Atomization
669.00 kJ/mol301.30 kJ/mol
Mercury
61.5 837
9.7 Standard Molar Entropy
32.60 J/mol.K51.20 J/mol.K
Beryllium
9.5 198.1