Uncuttable
Rotational
Systematic
Origin
Neutron
Graviton
Proton
Electron
Negatively-charged subatomic particle
Semiconductor electrical substrate
Packet of light energy emitted by atoms
Electroweak interaction with material forces
Size, shape
Location, momentum
Spin, vibration
Charge, velocity
Quantum mechanic shifts an electron makes when an atom absorbs energy
Chemical reaction between an electron and a proton
Spinning path the electron particle makes around the nucleus
Mathematical probability function of where an electron is likely to be
The mass of an atom in a vacuum at zero degrees kelvin
The mass of 1 proton or 1 neutron
A unit to compare relative atomic masses
The weight of an atom in a vacuum
Neutron
Graviton
Proton
Electron
Neutron
Graviton
Proton
Electron
Accumulates charge in response to the protons in the nucleus
Moves away from the nucleus
Interacts with gravitational fields
Increases its radioactive decay
Number of protons in the nucleus
Atomic radius, in angstroms
Number of neutrons in the nucleus
String vibrations the atom emits when excited
The quantity of subatomic particles in the nucleus
The number of protons
The number of electrons
The number of electron orbitals surrounding a nucleus
The nucleus consists of neutrons
Protons repel electrons because they have different charges
Quantized spin dynamics alter orbital strengths
The number of protons equals the number of electrons
20 neutrons
2,000 electrons
20,000 electrons
100,000 neutrons
Weighted mass of the most common isotope of that element
Weighted average of the masses of naturally-occurring isotopes
Largest weight of an isotope of that element
Relative weight percent of one atom to others in a compound
Chemical compounds with the same states of electrons
Atoms with the same number of neutrons but a different number of protons
Atoms with the same number of protons but a different number of neutrons
Chemical compounds with distinct electron orbitals
67.33%
0.01%
99.99%
23.67%
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