\(T_{\frac 12}=\frac {ln\ 2}{λ}\)
\(T_{\frac12} ln\ 2=λ\)
\(T_{\frac12}=\frac 1λ\)
\((λ+T_{\frac 12})=\frac {ln\ 2}{2}\)
The decay of atoms over time can be described using the formula \(N_t = N_0 . e^{(-λt)}\),
where
\(N_t\) represents the number of atoms at time \(t\)
\(N_0\) is the initial number of atoms,
\(λ\) is the decay constant.
For a specific case where \(t\) equals \(T_\frac12\):
\(2N_o = N_0 . e^{(-λ .T_\frac12)}\)
Simplifying this expression, we find:
\(2 = e^{(-λ . T_\frac 12)}\)
Taking the natural logarithm (ln) of both sides, we get:
\(ln\ (2) = -λ . T_\frac 12\)
Now, solving for \(T_\frac12\)
\(T_\frac 12 = \frac {ln\ (2)}{λ}\)
This equation establishes the relationship between the decay constant \((λ)\) and the half-life \((T_\frac 12)\).
The output (Y) of the given logic gate is similar to the output of an/a :
In the year 1911, Rutherford discovered the atomic nucleus along with his associates. It is already known that every atom is manufactured of positive charge and mass in the form of a nucleus that is concentrated at the center of the atom. More than 99.9% of the mass of an atom is located in the nucleus. Additionally, the size of the atom is of the order of 10-10 m and that of the nucleus is of the order of 10-15 m.
Read More: Nuclei