The energy of an electron in the nth orbit is given by:
\[ E_n = - \frac{13.6}{n^2} \, \text{eV}. \] The energy in the first orbit (\(n = 1\)) is: \[ E_1 = - \frac{13.6}{1^2} = -13.6 \, \text{eV}. \] The energy in the fourth orbit (\(n = 4\)) is: \[ E_4 = - \frac{13.6}{4^2} = - \frac{13.6}{16} = -0.85 \, \text{eV}. \] The energy required to transfer the electron from the first orbit to the fourth orbit is: \[ \Delta E = E_4 - E_1 = -0.85 - (-13.6) = 12.75 \, \text{eV}. \]
Let the function $ f(x) $ be defined as follows: $$ f(x) = \begin{cases} (1 + | \sin x |)^{\frac{a}{|\sin x|}}, & -\frac{\pi}{6}<x<0 \\b, & x = 0 \\ \frac{\tan 2x}{\tan 3x}, & 0<x<\frac{\pi}{6} \end{cases} $$ Then the values of $ a $ and $ b $ are: