Atomic Number | 102 |
---|---|
Atomic Weight | 259 |
Mass Number | 248 |
Group | |
---|---|
Period | 7 |
Block | f |
Protons | 102 p+ |
---|---|
Neutrons | 146 n0 |
Electrons | 102 e- |
Energy | |
---|---|
Proton Affinity | |
Electron Affinity | |
Ionization Energy | |
Heat of Vaporization | |
Heat of Fusion | |
Heat of Formation | |
Electrons | |
Electron Shells | 2, 8, 18, 32, 32, 8, 2 |
Valence Electrons | 2 ⓘ |
Electron Configuration | [Rn] 5f14 7s2ⓘ 1s2 2s2 2p6 3s2 3p6 4s2 3d10 4p6 5s2 4d10 5p6 6s2 4f14 5d10 6p6 5f14 7s2 |
Oxidation States | 2, 3 |
Electronegativity | |
Electrophilicity Index | |
States of Matter | |
Phase | Solid |
Gas Phase | |
Boiling Point | |
Melting Point | |
Critical Pressure | |
Critical Temperature | |
Triple Point | |
Visual | |
Nobelium is a Colorless. No has a CPK of #ffffff, Jmol of #bd0d87, and MOLCAS GV of #bd0d87. | |
Color | Colorless
|
Appearance | |
Refractive Index | |
Thermodynamic Properties | |
Thermal Conductivity | |
Thermal Expansion | |
Molar Heat Capacity | |
Specific Heat Capacity | |
Heat Capacity Ratio (Adiabatic Index) | |
Electrical Properties | |
Type | |
Electrical Conductivity | |
Electrical Resistivity | |
Superconducting Point | |
Magnetism | |
Type | |
Magnetic Susceptibility (Mass) | |
Magnetic Susceptibility (Molar) | |
Magnetic Susceptibility (Volume) | |
Magnetic Ordering | |
Curie Point | |
Neel Point | |
Structure | |
The lattice angles of Nobelium is . | |
Crystal Structure | () |
Lattice Constant | |
Lattice Angles | |
Mechanical Properties | |
Hardness | |
Bulk Modulus | |
Shear Modulus | |
Young's Modulus | |
Poisson Ratio | |
Speed of Sound | |
Classification | |
The Glawe Number of Nobelium is 46. The Mendeleev Number of No is 40. The Pettifor Number of Element 102 is 35. The Goldschmidt Class of Nobelium (No) is synthetic. | |
Category | Actinides, Actinides |
CAS Group | |
IUPAC Group | |
Glawe Number | 46 |
Mendeleev Number | 40 |
Pettifor Number | 35 |
Geochemical Class | |
Goldschmidt Class | synthetic |
The Dipole Polarizability of Nobelium is 110 plus or minus 6 a₀. The Allotropes of No is . The Quantum Numbers of Element 102 is 1S0. The Space Group of Nobelium (No) is ().
Gas Basicity | |
---|---|
Dipole Polarizability | |
C6 Dispersion Coefficient | |
Allotropes | |
Neutron Cross Section | |
Neutron Mass Absorption | |
Quantum Numbers | 1S0 |
Space Group | () |
Stable Isotopes | 0 |
---|---|
Unstable Isotopes | 17 |
Natural Isotopes | 0 |
Mass Number | 248 |
---|---|
Neutron Number | 146 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | |
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 2003 |
Parity | + |
Decay Mode | Intensity |
---|---|
SF (spontaneous fission) |
Mass Number | 249 |
---|---|
Neutron Number | 147 |
Relative Atomic Mass | |
G-Factor | |
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 57 ± 12 us
|
Spin | 5/2 |
Quadrupole Moment | |
Discovery Year | 2003 |
Parity | + |
Decay Mode | Intensity |
---|---|
β+ (β+ decay; β+ = ϵ + e+) | |
α (α emission) |
Mass Number | 250 |
---|---|
Neutron Number | 148 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 5.08 ± 0.27 us
|
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 2003 |
Parity | + |
Decay Mode | Intensity |
---|---|
SF (spontaneous fission) | 100% |
α (α emission) | |
β+ (β+ decay; β+ = ϵ + e+) |
Mass Number | 251 |
---|---|
Neutron Number | 149 |
Relative Atomic Mass | |
G-Factor | |
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 800 ± 10 ms
|
Spin | 7/2 |
Quadrupole Moment | |
Discovery Year | 1967 |
Parity | + |
Decay Mode | Intensity |
---|---|
α (α emission) | 83% |
β+ (β+ decay; β+ = ϵ + e+) | |
SF (spontaneous fission) | 0.3% |
Mass Number | 252 |
---|---|
Neutron Number | 150 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 2.467 ± 0.016 s
|
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 1967 |
Parity | + |
Decay Mode | Intensity |
---|---|
α (α emission) | 67.6% |
SF (spontaneous fission) | 31.3% |
β+ (β+ decay; β+ = ϵ + e+) | 1.1% |
Mass Number | 253 |
---|---|
Neutron Number | 151 |
Relative Atomic Mass | |
G-Factor | -0.11777777777778 ± 0.017777777777778
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 1.57 ± 0.02 m
|
Spin | 9/2 |
Quadrupole Moment | 5.9 ± 1.7
|
Discovery Year | 1967 |
Parity | - |
Decay Mode | Intensity |
---|---|
α (α emission) | 55% |
β+ (β+ decay; β+ = ϵ + e+) | |
SF (spontaneous fission) |
Mass Number | 254 |
---|---|
Neutron Number | 152 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 51.2 ± 0.4 s
|
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 1966 |
Parity | + |
Decay Mode | Intensity |
---|---|
α (α emission) | 90% |
β+ (β+ decay; β+ = ϵ + e+) | 10% |
SF (spontaneous fission) | 0.17% |
Mass Number | 255 |
---|---|
Neutron Number | 153 |
Relative Atomic Mass | |
G-Factor | |
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 3.52 ± 0.18 m
|
Spin | 1/2 |
Quadrupole Moment | 0
|
Discovery Year | 1967 |
Parity | + |
Decay Mode | Intensity |
---|---|
β+ (β+ decay; β+ = ϵ + e+) | 70% |
α (α emission) | 30% |
Mass Number | 256 |
---|---|
Neutron Number | 154 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 2.91 ± 0.05 s
|
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 1963 |
Parity | + |
Decay Mode | Intensity |
---|---|
α (α emission) | 99.45% |
SF (spontaneous fission) | 0.55% |
ϵ (electron capture) |
Mass Number | 257 |
---|---|
Neutron Number | 155 |
Relative Atomic Mass | |
G-Factor | |
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 24.5 ± 0.5 s
|
Spin | 3/2 |
Quadrupole Moment | |
Discovery Year | 1967 |
Parity | + |
Decay Mode | Intensity |
---|---|
α (α emission) | 85% |
β+ (β+ decay; β+ = ϵ + e+) | 15% |
SF (spontaneous fission) |
Mass Number | 258 |
---|---|
Neutron Number | 156 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 1.23 ± 0.12 ms
|
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 1989 |
Parity | + |
Decay Mode | Intensity |
---|---|
SF (spontaneous fission) | 100% |
α (α emission) |
Mass Number | 259 |
---|---|
Neutron Number | 157 |
Relative Atomic Mass | |
G-Factor | |
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 58 ± 5 m
|
Spin | 9/2 |
Quadrupole Moment | |
Discovery Year | 1973 |
Parity | + |
Decay Mode | Intensity |
---|---|
α (α emission) | 75% |
ϵ (electron capture) | 25% |
SF (spontaneous fission) | 10% |
Mass Number | 260 |
---|---|
Neutron Number | 158 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | 106 ± 8 ms
|
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 1985 |
Parity | + |
Decay Mode | Intensity |
---|---|
SF (spontaneous fission) | 100% |
Mass Number | 261 |
---|---|
Neutron Number | 159 |
Relative Atomic Mass | |
G-Factor | |
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | |
Spin | |
Quadrupole Moment | |
Discovery Year | |
Parity |
Decay Mode | Intensity |
---|---|
α (α emission) |
Mass Number | 262 |
---|---|
Neutron Number | 160 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | |
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | 1988 |
Parity | + |
Decay Mode | Intensity |
---|---|
SF (spontaneous fission) | 100% |
α (α emission) |
Mass Number | 263 |
---|---|
Neutron Number | 161 |
Relative Atomic Mass | |
G-Factor | |
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | |
Spin | |
Quadrupole Moment | |
Discovery Year | |
Parity |
Decay Mode | Intensity |
---|---|
α (α emission) | |
SF (spontaneous fission) |
Mass Number | 264 |
---|---|
Neutron Number | 162 |
Relative Atomic Mass | |
G-Factor | 0
|
Abundance | |
Radioactivity | ☢️ Radioactive |
Half Life | |
Spin | 0 |
Quadrupole Moment | 0
|
Discovery Year | |
Parity | + |
Decay Mode | Intensity |
---|---|
α (α emission) | |
SF (spontaneous fission) |
Nobelium was discovered by Albert Ghiorso, Glenn T. Seaborg, John R. Walton and Torbjørn Sikkeland in 1958 at the University of California, Berkeley. It was produced by the bombardment of curium with carbon atoms. It was correctly identified in 1966 by scientists at the Flerov Laboratory of Nuclear Reactions in Dubna, Soviet Union. Named after of Alfred Nobel, Swedish chemist who discovered dynamite and founder of the Nobel Prizes
Discoverers | Nobel Institute for Physics |
---|---|
Discovery Location | Sweden |
Discovery Year | 1957 |
Etymology (Name Origin) | Named in honor of Alfred Nobel, who invented dynamite and founded Nobel prize. |
Pronunciation | no-BELL-i-em (English) |
Made by bombarding curium with carbon-13
Abundance | |
---|---|
Abundance in Earth's crust | |
Natural Abundance (Oceans) | |
Natural Abundance (Human Body) | 0 %
|
Natural Abundance (Meteor) | 0 %
|
Natural Abundance (Sun) | 0 %
|
Abundance in Universe | 0 %
|