In nuclear magneton units, for the neutron and for the proton.
2.
Thus, in units of nuclear magneton, for the neutron and for the proton.
3.
In SI units, the nuclear magneton is
4.
While the g-factor is dimensionless, for composite particles it is defined relative to the natural unit of the nuclear magneton.
5.
Thus, multiplying the dimensionless g-factor by the nuclear magneton ( eV?" K " 1 ) and the Kelvin temperature.
6.
The Bohr magneton, which is calculated in the same fashion as the nuclear magneton, is larger than " & mu;"
7.
N is the nuclear magneton, " e " is the elementary charge and " m " p is the proton rest mass.
8.
Because the value for the magnetic moment is inversely proportional to particle mass, the nuclear magneton is about 1 / 2000 as large as the Bohr magneton.
9.
Where \ mu _ \ mathrm { N } is the nuclear magneton, and g _ n is the g-factor of the nucleon or nucleus in question.
10.
The calculation assumes that the quarks behave like pointlike Dirac particles, each having their own magnetic moment, as computed using an expression similar to the one above for the nuclear magneton.
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